mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for premixing fluids to form a dialysate for an extracorporeal blood treatment, comprising: at least a first feed portion for supplying at least a first fluid from at least a first fluid reservoir; at least a second feed portion for supplying at least a second fluid from at least a second fluid reservoir; a premixing portion which is configured to premix fluids supplied via the feed portions (12, 14) in counter flow to form a fluid mixture; and at least one drain portion for draining the fluid mixture premixed in the premixing portion as the dialysate, wherein at least one conductivity measuring device along the drain portion is provided for measuring the conductivity of the premixed fluid mixture and to generate a conductivity measuring signal capable of being further processed, characterized in that the conductivity measuring device comprises a digital filter which is adjustable on the basis of at least two state variables of the premixing process, wherein one of the state variables can be derived from the respective other one, and the digital filter is configured to have at least two phases, comprising a first, predictive phase in which a next system state is determined by way of measured values and a second, corrective phase in which the preceding finding is corrected by way of previous values. at least a first feed portion for supplying at least a first fluid from at least a first fluid reservoir; at least a second feed portion for supplying at least a second fluid from at least a second fluid reservoir; a premixing portion which is configured to premix fluids supplied via the feed portions (12, 14) in counter flow to form a fluid mixture; and at least one drain portion for draining the fluid mixture premixed in the premixing portion as the dialysate, wherein at least one conductivity measuring device along the drain portion is provided for measuring the conductivity of the premixed fluid mixture and to generate a conductivity measuring signal capable of being further processed, characterized in that the conductivity measuring device comprises a digital filter which is adjustable on the basis of at least two state variables of the premixing process, wherein one of the state variables can be derived from the respective other one, and the digital filter is configured to have at least two phases, comprising a first, predictive phase in which a next system state is determined by way of measured values and a second, corrective phase in which the preceding finding is corrected by way of previous values.
A method performed by a base station for communicating with a user equipment in a communication network, the base station being configured to communicate with the user equipment according to a user equipment category selected from at least two user equipment categories, wherein the at least two user equipment categories comprise a first user equipment category associated with release 10 LTE and a second user equipment category associated with release 8/9 LTE, the method comprising: receiving (701a, 701c, 701d, 901), from the user equipment, information about the at least two user equipment categories and at least a first number of maximum DL MIMO transmission layers associated with the first user equipment category, wherein at least a second number of maximum DL MIMO transmission layers is associated with the second user equipment category; and transmitting (702a, 702b, 702d, 804) an indication to the user equipment of a supported number of maximum DL MIMO transmission layers according to LTE release 10, when the base station supports LTE release 10. receiving (701a, 701c, 701d, 901), from the user equipment, information about the at least two user equipment categories and at least a first number of maximum DL MIMO transmission layers associated with the first user equipment category, wherein at least a second number of maximum DL MIMO transmission layers is associated with the second user equipment category; and transmitting (702a, 702b, 702d, 804) an indication to the user equipment of a supported number of maximum DL MIMO transmission layers according to LTE release 10, when the base station supports LTE release 10.
A heat exchanger, comprising: a first heat exchange core, comprising a first heat exchange fin and two first seals being disposed opposite to each other and are separately connected to the first heat exchange fin in an intersected manner; and a second heat exchange core, comprising a second heat exchange fin and two second seals being opposite to each other and are separately connected to the second heat exchange fin in an intersected manner, wherein the first heat exchange core and the second heat exchange core are connected in a stacked manner, a first air duct is formed in the first heat exchange core, and a second air duct is formed in the second heat exchange core; and a first air inlet and a first air outlet of the first air duct are completely staggered from a second air inlet and a second air outlet of the second air duct, the heat exchanger being characterized in that the second heat exchange core further comprises a heat exchange medium permeability channel being disposed on a surface of the second heat exchange fin. a first heat exchange core, comprising a first heat exchange fin and two first seals being disposed opposite to each other and are separately connected to the first heat exchange fin in an intersected manner; and a second heat exchange core, comprising a second heat exchange fin and two second seals being opposite to each other and are separately connected to the second heat exchange fin in an intersected manner, wherein the first heat exchange core and the second heat exchange core are connected in a stacked manner, a first air duct is formed in the first heat exchange core, and a second air duct is formed in the second heat exchange core; and a first air inlet and a first air outlet of the first air duct are completely staggered from a second air inlet and a second air outlet of the second air duct, the heat exchanger being characterized in that the second heat exchange core further comprises a heat exchange medium permeability channel being disposed on a surface of the second heat exchange fin.
Rechargeable battery comprising an enclosure containing an electrode assembly, the electrode assembly comprising a first electrode and a second electrode, wherein an electrode lead tab is electrically connected to the first electrode and includes an external portion protruding from the enclosure, a temperature protection element for cutting current flow through the temperature protection element depending on temperature is affixed to an external surface of the enclosure and in that a connection tab is connected to said external portion via the temperature protection element, said electrode lead tab being electrically insulated from the enclosure, wherein the temperature protection element includes: a first connection portion 31 connected to the positive electrode lead tab, a transmission portion connected to the first connection portion, and a second connection portion connected to the transmission portion, characterised in that the external portion of the electrode lead tab and the temperature protection element are connected through an extension portion winding around an end of the electrode lead tab and coupled to the first connection portion.
A contact lens inspection system, in particular for soft contact lenses, comprising: a light source configured for illuminating a contact lens to be inspected; a camera configured for producing an electronic image of the contact lens; a processing unit configured for electronically processing the electronic image of the contact lens, characterized in that the camera is a plenoptic camera having an objective lens, a lenslet array and a photodetector, and being configured for producing an electronic plenoptic image of the contact lens, and in that the processing unit is configured for electronically processing and for refocusing the electronic plenoptic image of the contact lens, wherein the processing unit is adapted for processing different views of the contact lens received by the photodetector to produce a final image, and wherein producing the final image involves using the different views of the contact lens to form a final image which has a plane of focus arranged along a curved surface of the contact lens to be inspected. a light source configured for illuminating a contact lens to be inspected; a camera configured for producing an electronic image of the contact lens; a processing unit configured for electronically processing the electronic image of the contact lens, characterized in that the camera is a plenoptic camera having an objective lens, a lenslet array and a photodetector, and being configured for producing an electronic plenoptic image of the contact lens, and in that the processing unit is configured for electronically processing and for refocusing the electronic plenoptic image of the contact lens, wherein the processing unit is adapted for processing different views of the contact lens received by the photodetector to produce a final image, and wherein producing the final image involves using the different views of the contact lens to form a final image which has a plane of focus arranged along a curved surface of the contact lens to be inspected.
A material comprising a glass sheet coated on at least part of one of its faces with a stack of thin layers, said stack being coated on at least part of its surface with an enamel layer comprising zinc and less than 5% by weight of bismuth oxide and not comprising lead oxide, said stack further comprising, in contact with the enamel layer, a layer, called contact layer, which is based on an oxide, the physical thickness of said contact layer being at least 5 nm.
A natural circulation type cooling apparatus comprising: a heat receiver comprising a heat receiving surface on which an exothermic body is mounted, and containing therein a coolant in a liquid phase; a condenser provided on a horizontally lateral side of the heat receiver, and configured to condense a vapor which is generated by the heat receiver; a radiator disposed on a horizontally lateral side of the heat receiver, and configured to cool the coolant which is fed from the heat receiver and is heated; a vapor conduit configured to feed the vapor of the coolant, which is generated by the heat receiver, to an inlet of the condenser; a condensed liquid conduit configured to feed the coolant, which is condensed, from an outlet of the condenser to a coolant inlet of the heat receiver; a coolant conduit configured to feed the coolant, which is heated in the heat receiver, to an inlet of the radiator; and a coolant circulation conduit configured to feed the coolant, which is cooled in the radiator, from an outlet of the radiator to the coolant inlet of the heat receiver characterized in that the radiator is disposed on a vertically downward side of the condenser. a heat receiver comprising a heat receiving surface on which an exothermic body is mounted, and containing therein a coolant in a liquid phase; a condenser provided on a horizontally lateral side of the heat receiver, and configured to condense a vapor which is generated by the heat receiver; a radiator disposed on a horizontally lateral side of the heat receiver, and configured to cool the coolant which is fed from the heat receiver and is heated; a vapor conduit configured to feed the vapor of the coolant, which is generated by the heat receiver, to an inlet of the condenser; a condensed liquid conduit configured to feed the coolant, which is condensed, from an outlet of the condenser to a coolant inlet of the heat receiver; a coolant conduit configured to feed the coolant, which is heated in the heat receiver, to an inlet of the radiator; and a coolant circulation conduit configured to feed the coolant, which is cooled in the radiator, from an outlet of the radiator to the coolant inlet of the heat receiver
An air conditioner pipeline device, comprising: a gaseous refrigerant connecting pipe and a liquid refrigerant connecting pipe which are configured to be connected between an indoor unit and an outdoor unit of the air conditioner, wherein at least one of the gaseous refrigerant connecting pipe and the liquid refrigerant connecting pipe adopts a multi-layer pipe; and characterized in that the multi-layer pipe comprises: at least two conductive pipes, sequentially and coaxially sleeved along a radial direction of the multi-layer pipe, and configured to be connected to a power supply of the air conditioner to transmit power to the air conditioner, an internal area of the innermost layer of conductive pipe being configured to allow a refrigerant to flow, and first insulating layers, configured to achieve insulation of at least two conductive pipes; the air conditioner pipeline device further comprises an adapter, a first refrigerant pipe adapted to be arranged in the indoor unit, and a second refrigerant pipe adapted to be arranged in the outdoor unit, wherein two ends of the multi-layer pipe respectively communicate with the first refrigerant pipe and the second refrigerant pipe through the adapter; wherein the adapter comprises a main body part, an electrical connection structure and a connection terminal; the electrical connection structure is arranged in the main body part; the electrical connection structure has the same layer structure as the multi-layer pipe and is butted with the multi-layer pipe; and the connection terminal is led out from the electrical connection structure and is connectable to the power supply. at least two conductive pipes, sequentially and coaxially sleeved along a radial direction of the multi-layer pipe, and configured to be connected to a power supply of the air conditioner to transmit power to the air conditioner, an internal area of the innermost layer of conductive pipe being configured to allow a refrigerant to flow, and first insulating layers, configured to achieve insulation of at least two conductive pipes; the air conditioner pipeline device further comprises an adapter, a first refrigerant pipe adapted to be arranged in the indoor unit, and a second refrigerant pipe adapted to be arranged in the outdoor unit, wherein two ends of the multi-layer pipe respectively communicate with the first refrigerant pipe and the second refrigerant pipe through the adapter; wherein the adapter comprises a main body part, an electrical connection structure and a connection terminal; the electrical connection structure is arranged in the main body part; the electrical connection structure has the same layer structure as the multi-layer pipe and is butted with the multi-layer pipe; and the connection terminal is led out from the electrical connection structure and is connectable to the power supply.
A method for testing a vehicle, in particular a motor vehicle, the method comprising driving the vehicle across a measuring device; and the method being characterized by comprising the steps of: recording sound emitted during operation of the vehicle when the latter drives across the measuring device by means of at least one sound recording device; evaluating the sound recorded by the at least one sound recording device, said method including recording strip-shaped images of the underbody and combining the same into an optical image of the underbody of the vehicle and displaying the at least one sound source localized on the vehicle in the form of an optical representation in the optical image recorded of the underbody. recording sound emitted during operation of the vehicle when the latter drives across the measuring device by means of at least one sound recording device; evaluating the sound recorded by the at least one sound recording device, said method including recording strip-shaped images of the underbody and combining the same into an optical image of the underbody of the vehicle and displaying the at least one sound source localized on the vehicle in the form of an optical representation in the optical image recorded of the underbody.
A wind turbine comprising a rotor with at least one rotor blade, the rotor being rotatable about a rotor axis and defines a rotor plane, the wind turbine further comprising a load control system adapted to determine a load distribution on the rotor plane based on load signals from blade bending sensors located in each blade and to determine a blade pitching value for each rotor blade individually to thereby compensate for asymmetry in the load distribution, characterized in that the load control system is adapted to carry out the compensation based on a difference between the determined load distribution and a threshold value, and wherein the load control system is adapted to determine the threshold value based on a difference between a load on one of the blades and an average load on all of the blades.
A method for supporting satellite wireless access by a user equipment, UE, to a serving public land mobile network, PLMN, the method performed by the UE, the method comprising: receiving configuration data from a network node via a communication satellite, wherein the configuration data comprises configuration information for fixed cells and fixed tracking areas in wireless coverage of the communication satellite and associated with the serving PLMN, wherein the fixed cells and the fixed tracking areas are defined as fixed geographic areas and wherein the fixed cells and the fixed tracking areas are defined independently of each other; characterized by obtaining a position of the UE, wherein the position enables a determination by a network entity of a fixed serving cell and a fixed serving tracking area in which the UE is located based on the position of the UE and the configuration information for the fixed cells and the fixed tracking areas; and enabling a service operation for the UE by a serving core network for the serving PLMN based on at least one of the fixed serving cell and the fixed serving tracking area. receiving configuration data from a network node via a communication satellite, wherein the configuration data comprises configuration information for fixed cells and fixed tracking areas in wireless coverage of the communication satellite and associated with the serving PLMN, wherein the fixed cells and the fixed tracking areas are defined as fixed geographic areas and wherein the fixed cells and the fixed tracking areas are defined independently of each other; characterized by obtaining a position of the UE, wherein the position enables a determination by a network entity of a fixed serving cell and a fixed serving tracking area in which the UE is located based on the position of the UE and the configuration information for the fixed cells and the fixed tracking areas; and enabling a service operation for the UE by a serving core network for the serving PLMN based on at least one of the fixed serving cell and the fixed serving tracking area.
A system for monitoring aircraft air via a diagnostic test comprising: a vessel having an inlet, a conical main body containing: a reagent fluid for extracting particles from the air coating an inner surface on the conical main body, and an outlet, wherein the outlet is positioned within at least one of an outlet flow path or a recirculation flow path of an aircraft; and wherein the system further comprises at least one of an outflow valve positioned in the outlet flow path downstream from the vessel or a HEPA filter positioned in the recirculation flow path downstream from the vessel and wherein the reagent fluid includes a customized mixture for the targeted pathogen or contaminant and diagnostic test; the system further containing a buffer; and wherein the reagent fluid includes molecular grade sterile water and a range of components for nucleic acid protection and conservation, and the buffer composition and pH range are varied depending on quality and quantity of samples to be harvested. a vessel having an inlet, a conical main body containing: a reagent fluid for extracting particles from the air coating an inner surface on the conical main body, and an outlet, wherein the outlet is positioned within at least one of an outlet flow path or a recirculation flow path of an aircraft; and wherein the system further comprises at least one of an outflow valve positioned in the outlet flow path downstream from the vessel or a HEPA filter positioned in the recirculation flow path downstream from the vessel and wherein the reagent fluid includes a customized mixture for the targeted pathogen or contaminant and diagnostic test; the system further containing a buffer; and wherein the reagent fluid includes molecular grade sterile water and a range of components for nucleic acid protection and conservation, and the buffer composition and pH range are varied depending on quality and quantity of samples to be harvested.
A method for the production of injectable formulations from plasma derived protein products with reduced viral load, wherein said method comprises the steps of: a. fractionation of the starting material in a system of two aqueous phases by adding a polymer and at least one salt; b. addition of phenol to the two phase system as a first step of viral inactivation; c. separation of upper and lower phases of the system into two aqueous phases; d. purification of the products in the system's upper phase through precipitation with a fatty acid; e. purification of the products in the system's lower phase through thermo coagulation; f. removal of denaturalized protein precipitates formed during the purification steps of the system's upper and lower phases in two steps; g. increasing the purity of the products obtained from the upper and lower phases through chromatography; h. nano-filtration of the products obtained in the previous step to remove viral particles; and i. formulation, stabilization and sterilization of the products thus obtained. a. fractionation of the starting material in a system of two aqueous phases by adding a polymer and at least one salt; b. addition of phenol to the two phase system as a first step of viral inactivation; c. separation of upper and lower phases of the system into two aqueous phases; d. purification of the products in the system's upper phase through precipitation with a fatty acid; e. purification of the products in the system's lower phase through thermo coagulation; f. removal of denaturalized protein precipitates formed during the purification steps of the system's upper and lower phases in two steps; g. increasing the purity of the products obtained from the upper and lower phases through chromatography; h. nano-filtration of the products obtained in the previous step to remove viral particles; and i. formulation, stabilization and sterilization of the products thus obtained.