mhurhangee/ep-ind-claims huggingface dataset:
A coolant distribution arrangement (24, 24', 24") for a vehicle propulsion battery cooling system, the cooling system comprising a coolant inlet circuit, a coolant outlet circuit, and at least one coolant branch (30, 37), configured to cool a set of propulsion battery packs (12, 12'), wherein - the arrangement (24, 24', 24") comprises a first manifold section (22, 22', 22"), which first manifold section (22, 22', 22") comprises: - a coolant inlet (20, 20', 20") configured to receive coolant from the coolant inlet circuit, - at least one supply outlet (28, 28', 28") configured to supply coolant to the at least one coolant branch (30, 37; 30', 37'), wherein the arrangement comprises a second manifold section (32, 32', 32"), which second manifold section (32, 32', 32") comprises: - at least one receiving inlet (36, 36', 36") configured to receive coolant from the at least one coolant branch (30, 37; 30', 37'), - a coolant outlet (38, 38', 38") configured to return coolant to the coolant outlet circuit, and wherein the arrangement (24, 24', 24") comprises a deairing connection (44, 44', 44") between the first manifold section (22, 22', 22") and the second manifold section (32, 32', 32") configured to evacuate air from the first manifold section (22, 22', 22") to the second manifold section (32, 32', 32"), characterized in that the first and the second manifold sections (22, 22', 32, 32') are discrete components and wherein the deairing connection (44, 44') comprises a separate conduit. - the arrangement (24, 24', 24") comprises a first manifold section (22, 22', 22"), which first manifold section (22, 22', 22") comprises: - a coolant inlet (20, 20', 20") configured to receive coolant from the coolant inlet circuit, - at least one supply outlet (28, 28', 28") configured to supply coolant to the at least one coolant branch (30, 37; 30', 37'), wherein the arrangement comprises a second manifold section (32, 32', 32"), which second manifold section (32, 32', 32") comprises: - at least one receiving inlet (36, 36', 36") configured to receive coolant from the at least one coolant branch (30, 37; 30', 37'), - a coolant outlet (38, 38', 38") configured to return coolant to the coolant outlet circuit, and - at least one receiving inlet (36, 36', 36") configured to receive coolant from the at least one coolant branch (30, 37; 30', 37'), - a coolant outlet (38, 38', 38") configured to return coolant to the coolant outlet circuit, and wherein the arrangement (24, 24', 24") comprises a deairing connection (44, 44', 44") between the first manifold section (22, 22', 22") and the second manifold section (32, 32', 32") configured to evacuate air from the first manifold section (22, 22', 22") to the second manifold section (32, 32', 32"), characterized in that the first and the second manifold sections (22, 22', 32, 32') are discrete components and wherein the deairing connection (44, 44') comprises a separate conduit.
Method for producing an expanded granulate from sand grain-shaped mineral material having an expanding agent, for example for producing an expanded granulate from perlite sand or obsidian sand; wherein the material is fed into a furnace; wherein the material is conveyed in a substantially vertically disposed furnace shaft of the furnace along a conveying path through a plurality of heating zones arranged vertically separated from one another, wherein each heating zone can be heated with at least one independently controllable heating element; wherein the material is thereby heated to a critical temperature at which the surfaces of the sand grains become plastic and the sand grains are expanded due to the expanding agent; wherein the expanded material is discharged from the furnace, wherein furthermore the material is fed together with a quantity of air from below, wherein the material is conveyed from bottom to top along the conveying path by means of the quantity of air flowing from bottom to top in the furnace shaft and forming an air flow, and wherein the expansion of the sand grains takes place in the upper half, preferably in the uppermost third, of the conveying path, characterized in that the material is heated so that the material, immediately before its entry into the furnace shaft, has a material entry temperature which is lower than the critical temperature and higher than an ambient temperature.
The use of a structured water for reducing free radicals from the skin, wherein said structured water comprises a cluster structure having an electronegative or electropositive aggregate of water molecules stabilized by ions with at least one antioxidant agent integrated within said cluster structure, and wherein said structured water is produced by adding the antioxidant agent to unstructured feed water comprising an ionic composition of cations and anions and having a conductivity of about 250 to 450 μs/cm and a pH of about 5.0 to 7.5, followed by feeding the antioxidant-containing unstructured feed water through a device for producing an electrostatic field of 60 to 120 V to generate aggregates with positive radicals and aggregates with negative radicals to form structured S water or I water respectively, wherein the structured I water is characterized by a conductivity of 500 to 3500 μs/cm and a pH of 2.0 to 4.0, wherein the structured S water is characterized by a conductivity of 600 to 2500 μs/cm and a pH of 10.0 to 12.0.
An inert gas generating system comprising: an air source configured to provide an air stream that comprises at least one of ram air, external air, conditioned air, or compressed air; an electrochemical gas separator configured to receive the air stream and an electrical current to produce an oxygen-depleted air stream containing water and/or water vapor; a dryer configured to receive the oxygen-depleted air stream and to produce a dehumidified oxygen-depleted air stream; a contained volume configured to receive the dehumidified oxygen-depleted air stream. an air source configured to provide an air stream that comprises at least one of ram air, external air, conditioned air, or compressed air; an electrochemical gas separator configured to receive the air stream and an electrical current to produce an oxygen-depleted air stream containing water and/or water vapor; a dryer configured to receive the oxygen-depleted air stream and to produce a dehumidified oxygen-depleted air stream; a contained volume configured to receive the dehumidified oxygen-depleted air stream.
A grinder, comprising a housing with a longitudinal direction from an upper side to a lower side, wherein a fixing plate is provided inside the housing, the fixing plate divides an inner portion of the housing into an upper portion and a lower portion, a feeding assembly is provided on the upper portion of the housing; a bracket is further provided on the upper portion of the housing; the bracket divides the remaining upper portion - thereby excluding the volume of the upper portion comprised within the feeding assembly - of the housing into two parts, and wherein one part is provided with a power mechanism and the other part is provided with a power supply mechanism; the feeding assembly, the power mechanism and the power supply mechanism are transversely arranged with respect to the longitudinal direction, wherein a grinding mechanism is provided on the lower portion of the housing, the grinding mechanism comprises a male grinding head and a female grinding head, the male grinding head is rotatably fitted in the female grinding head, and the male grinding head is connected to a motor by means of a driving shaft, wherein a shifting mechanism is connected below the male grinding head, and the shifting mechanism is rotatably connected to the male grinding head, characterized in that a compression spring is provided inside the shifting mechanism 18, and the position of the male grinding head 8 is adjusted by rotating the shifting mechanism 18 to adjust the compression degree of the compression spring, thereby adjusting the thickness of grinding. wherein a grinding mechanism is provided on the lower portion of the housing, the grinding mechanism comprises a male grinding head and a female grinding head, the male grinding head is rotatably fitted in the female grinding head, and the male grinding head is connected to a motor by means of a driving shaft, wherein a shifting mechanism is connected below the male grinding head, and the shifting mechanism is rotatably connected to the male grinding head, characterized in that a compression spring is provided inside the shifting mechanism 18, and the position of the male grinding head 8 is adjusted by rotating the shifting mechanism 18 to adjust the compression degree of the compression spring, thereby adjusting the thickness of grinding.
An intravascular blood pump, comprising - a drive section which has a motor housing having a proximal end and a distal end and an electric motor disposed in the motor housing, with the electric motor possessing a motor shaft which protrudes at one end out of the distal end of the motor housing and is mounted radially (27, 31) in the motor housing both at the proximal end and at the distal end of the motor housing, with the motor shaft being mounted in the motor housing axially by means of at least one axial sliding bearing or radial-axial sliding bearing, - a catheter which is connected to the proximal end of the motor housing and along which there extend lines for power supply to the electric motor, and - a pump section having a tubular pump housing which is fastened to the distal end of the motor housing, and an impeller which is seated on the end of the motor shaft protruding out of the distal end of the motor housing and is rotatable in the pump housing, characterized in that the motor has a static motor section and a rotating motor section, with the rotating motor section being configured as a solenoid which is displaced magnetically into the center of the static motor section into a rest position, with the solenoid being disposed so as to be pulled out of said rest position axially. - a drive section which has a motor housing having a proximal end and a distal end and an electric motor disposed in the motor housing, with the electric motor possessing a motor shaft which protrudes at one end out of the distal end of the motor housing and is mounted radially (27, 31) in the motor housing both at the proximal end and at the distal end of the motor housing, with the motor shaft being mounted in the motor housing axially by means of at least one axial sliding bearing or radial-axial sliding bearing, - a catheter which is connected to the proximal end of the motor housing and along which there extend lines for power supply to the electric motor, and - a pump section having a tubular pump housing which is fastened to the distal end of the motor housing, and an impeller which is seated on the end of the motor shaft protruding out of the distal end of the motor housing and is rotatable in the pump housing, characterized in that the motor has a static motor section and a rotating motor section, with the rotating motor section being configured as a solenoid which is displaced magnetically into the center of the static motor section into a rest position, with the solenoid being disposed so as to be pulled out of said rest position axially.
An analysis device used in a three-phase power system having a natural frequency comprising: - first means for providing parameters representative of the currents (I X) of each of the phases comprising means for receiving signals representative of the currents of each of the phases, half-wave rectifying means of said signals providing first parameters (I Xp); - second processing means of the representative parameters comprising means for calculating the current resulting from the sum (I 0p) of the first parameters (I Xp) and frequency analysis means (46, 48) of said result (I 0p); characterized in that: the frequency analaysis means (46, 48) of the second processing means comprise comparison of the zeroth harmonic component (I 0p DC) and second harmonic component (I 0p 2F) of the result (I 0p) of the calculations means with the natural frequency of the power system; and - said analysis device is adapted for identification of a fault in a three-phase power system, and for then comprises: - activation means of said second processing means according to a detection signal of the occurrence of a fault in the power system; and - interpretation means of the results of the processing by the second means of the first parameters (I Xp) to determine whether the fault is two-phase. - first means for providing parameters representative of the currents (I X) of each of the phases comprising means for receiving signals representative of the currents of each of the phases, half-wave rectifying means of said signals providing first parameters (I Xp); - second processing means of the representative parameters comprising means for calculating the current resulting from the sum (I 0p) of the first parameters (I Xp) and frequency analysis means (46, 48) of said result (I 0p); - said analysis device is adapted for identification of a fault in a three-phase power system, and for then comprises: - activation means of said second processing means according to a detection signal of the occurrence of a fault in the power system; and - interpretation means of the results of the processing by the second means of the first parameters (I Xp) to determine whether the fault is two-phase.
A turbocharger for motor vehicles comprising a containing casing defining at least one first chamber and one second chamber; at least one first closing plate, which is mounted inside the containing casing, so as to separate said first and second chamber (3, 5) from one another in a fluid-tight manner; a first impeller, which is mounted so as to rotate in the first chamber; a second impeller, which is mounted so as to rotate in the second chamber; a drive shaft, which is engaged in an angularly fixed manner through said first and second impeller (10, 11), and is mounted so as to rotate around a given rotation axis; a suction duct for sucking air into the second chamber; a delivery duct for feeding a compressed air flow generated by the second impeller into an internal combustion engine; and a feeding duct for feeding the combustion products generated in the internal combustion engine into the first chamber; the first closing plate being provided with a cooling circuit, which is obtained through the first closing plate, is crossed by a cooling fluid, and comprises a cooling channel extending around said rotation axis; the first closing plate comprising two circular discs (13, 14), which present, each, a respective recess and are coupled to one another in a fluid-tight manner, so as to allow the two recesses to define said cooling circuit; and characterised in that the first closing plate presents an inlet for letting the cooling fluid into the cooling channel, an outlet for letting the cooling fluid out of the cooling channel, and a dividing baffle, which is arranged inside the cooling channel between the inlet and the outlet, so as to force the cooling fluid along the cooling channel itself with a single-direction motion.
A method for accessing a 2G/3G network, comprising: adding, by a User Equipment, UE, Mobility Management Entity information, MME information, for uniquely identifying an MME accessed by the UE in an evolved network, to an access message; wherein the MME information comprises an MME-id in a system architecture evolution-temporary mobile station identity, SAE-TMSI, allocated by the evolved network; and wherein adding, by the UE, the MME information, for uniquely identifying the MME accessed by the UE in the evolved network, to the access message comprises: placing, by the UE, the MME-id into a Network Resource Identifier, NRI, information of a Packet-Temporary Mobile Station Identity, P-TMSI, of the access message; sending, by the UE, the access message to the 2G/3G network when the UE accesses the 2G/3G network. adding, by a User Equipment, UE, Mobility Management Entity information, MME information, for uniquely identifying an MME accessed by the UE in an evolved network, to an access message; wherein the MME information comprises an MME-id in a system architecture evolution-temporary mobile station identity, SAE-TMSI, allocated by the evolved network; and wherein adding, by the UE, the MME information, for uniquely identifying the MME accessed by the UE in the evolved network, to the access message comprises: placing, by the UE, the MME-id into a Network Resource Identifier, NRI, information of a Packet-Temporary Mobile Station Identity, P-TMSI, of the access message; sending, by the UE, the access message to the 2G/3G network when the UE accesses the 2G/3G network.
A heat pump, comprising a housing through which ambient air flows, a flow guide, arranged in the housing, for the ambient air, and a sound-emitting heat pump component which is associated with the flow guide and interacts with the ambient air, the flow guide being designed to surround the vertical sides of the heat pump component in a sheath-like manner in order to form a sheath flow of the ambient air in the housing, the heat pump component comprising a fan which has a vertical axis of rotation, the housing having an upper and a lower housing section (1.1, 1.2), an upper sheath duct (2.3) for feeding the ambient air being provided in the upper housing section (1.1), and a lower sheath duct (2.4) for discharging the ambient air being provided in the lower housing section (1.2), characterised in that the fan is optionally associated on the outflow side with a conical or pyramidal flow deflector.
A protease variant comprising a substitution selected from the group consisting of L184F, L184Y, L184W and L184D, wherein positions correspond to the positions of SEQ ID NO: 3, wherein the variant has a sequence identity to SEQ ID NO: 3 of at least 80%, and wherein the variant has protease activity and an increased inhibition by the protease inhibitor Z-Gly-Ala-NHCH(CH 2 C 6 H 4 pOH)C (SO 3 Na)-H, wherein Z is benzyloxycarbonyl, compared to the inhibition of the protease of SEQ ID NO: 3 by the inhibitor.
A radiation curable optical fiber primary coating composition comprising, in the uncured state, from 50 % to 65 % by weight of the composition, an oligomer comprising the reaction product of: a) at least one polyether polyol having a molecular weight of from 3500 g/mol to 10 000 g/mol, b) at least one diisocyanate selected from the group consisting of an aromatic diisocyanate, an aliphatic diisocyanate, and mixtures thereof, c) at least one hydroxyl terminated acrylate or (meth)acrylate, and d) optionally, an alcohol; from 30 % to 50 % by weight of the composition, a reactive diluent monomer blend comprising at least two reactive diluent monomers, wherein each of said monomers in said blend comprises at least one phenyl group or phenoxy group, and at least one acrylate group, having the formula: wherein x is an integer of from 1 to 6; n is an integer of from 1 to 5; and each Y, which may be the same or different, is independently selected from the group consisting of hydrogen, a C 1 to C 12 alkyl group and an alkarylalkoxylated acrylate radical; and at least one photoinitiator; said reactive diluent monomer blend being substantially free of non-aryl reactive diluent monomers; wherein when an aryl reactive diluent monomer is present that has a molecular weight less than about 300, it is present at no more than about 10 wt.% of the total formulation, wherein said primary composition includes, based on the weight of the composition, less than 0.4 % by weight of alkyl monomers that do not include a phenyl group or phenoxy group, and wherein the total amount of oligomer and reactive diluent monomer blend is from 85 % to 98 % by weight of the coating composition. a) at least one polyether polyol having a molecular weight of from 3500 g/mol to 10 000 g/mol, b) at least one diisocyanate selected from the group consisting of an aromatic diisocyanate, an aliphatic diisocyanate, and mixtures thereof, c) at least one hydroxyl terminated acrylate or (meth)acrylate, and d) optionally, an alcohol; from 30 % to 50 % by weight of the composition, a reactive diluent monomer blend comprising at least two reactive diluent monomers, wherein each of said monomers in said blend comprises at least one phenyl group or phenoxy group, and at least one acrylate group, having the formula: wherein x is an integer of from 1 to 6; n is an integer of from 1 to 5; and each Y, which may be the same or different, is independently selected from the group consisting of hydrogen, a C 1 to C 12 alkyl group and an alkarylalkoxylated acrylate radical; and at least one photoinitiator; said reactive diluent monomer blend being substantially free of non-aryl reactive diluent monomers; wherein when an aryl reactive diluent monomer is present that has a molecular weight less than about 300, it is present at no more than about 10 wt.% of the total formulation, wherein said primary composition includes, based on the weight of the composition, less than 0.4 % by weight of alkyl monomers that do not include a phenyl group or phenoxy group, and wherein the total amount of oligomer and reactive diluent monomer blend is from 85 % to 98 % by weight of the coating composition.
A method for calibration of a transceiver (400, 900), TRX, comprising a transmitter, TX, and a measurement receiver (440, 1540), MRX, the method comprising: producing a plurality of TX local oscillator, LO, signals having a same frequency and offset in phase by a first LO generator comprising a first frequency doubler and a first frequency divider, the first frequency doubler being configured to receive a voltage controlled oscillator, VCO, signal having a first frequency and generate a first signal fed into the first frequency divider, the first signal having a second frequency that is twice the first frequency; producing a plurality of MRX LO signals having a same frequency and offset in phase by a second LO generator comprising a second frequency doubler and a second frequency divider, the second frequency doubler being configured to receive the VCO signal and generate a second signal fed into the second frequency divider, the second signal having the second frequency; and in a calibration mode, configuring the TX to operate at a first LO frequency of the plurality of TX LO signals, and configuring the MRX to operate at a second LO frequency of the plurality of MRX LO signals equal to the first frequency through disabling the second frequency doubler. producing a plurality of TX local oscillator, LO, signals having a same frequency and offset in phase by a first LO generator comprising a first frequency doubler and a first frequency divider, the first frequency doubler being configured to receive a voltage controlled oscillator, VCO, signal having a first frequency and generate a first signal fed into the first frequency divider, the first signal having a second frequency that is twice the first frequency; producing a plurality of MRX LO signals having a same frequency and offset in phase by a second LO generator comprising a second frequency doubler and a second frequency divider, the second frequency doubler being configured to receive the VCO signal and generate a second signal fed into the second frequency divider, the second signal having the second frequency; and in a calibration mode, configuring the TX to operate at a first LO frequency of the plurality of TX LO signals, and configuring the MRX to operate at a second LO frequency of the plurality of MRX LO signals equal to the first frequency through disabling the second frequency doubler.