mhurhangee/ep-ind-claims huggingface dataset:
A method for quality of service, QoS, parameters mapping during a handover from a first radio access network, RAN, to a second RAN, wherein the first RAN does not support aggregated maximum bit rate, AMBR, for non-guaranteed bit rate, GBR, bearers, the first RAN having communication with at least one access point name, APN, the method comprising: deriving, for the second RAN, an APN aggregated maximum bit rate, APN-AMBR, for a first APN based on a maximum bit rate, MBR, of a packet data protocol, PDP, context associated with the first APN of the first RAN; calculating a derived user equipment, UE, AMBR; wherein calculating the derived UE-AMBR comprises taking a minimum of the subscribed UE-AMBR and a sum of all APN-AMBRs of all active APNs associated with the UE, wherein the first RAN includes one of a universal terrestrial radio access network, UTRAN, and a global system for mobiles, GSM, enhanced data for GSM evolution radio access network, GERAN, and the second RAN includes an evolved universal terrestrial radio access network, E-UTRAN. deriving, for the second RAN, an APN aggregated maximum bit rate, APN-AMBR, for a first APN based on a maximum bit rate, MBR, of a packet data protocol, PDP, context associated with the first APN of the first RAN; calculating a derived user equipment, UE, AMBR; wherein calculating the derived UE-AMBR comprises taking a minimum of the subscribed UE-AMBR and a sum of all APN-AMBRs of all active APNs associated with the UE, wherein the first RAN includes one of a universal terrestrial radio access network, UTRAN, and a global system for mobiles, GSM, enhanced data for GSM evolution radio access network, GERAN, and the second RAN includes an evolved universal terrestrial radio access network, E-UTRAN.
A zeolite structure comprising: a zeolite material containing a plurality of zeolite particles and an inorganic binding material which binds the zeolite particles to one another, wherein the plurality of zeolite particles include fine zeolite particles having a small average particle diameter and coarse zeolite particles which have an average particle diameter of three or more times the average particle diameter of the fine zeolite particles and which are not an agglomerated material of primary particles, the particles exhibiting a bimodal particle size distribution having a first peak due to the fine zeolite particles having small particle diameters and a second peak due to the coarse zeolite particles, wherein a ratio of volumes of the coarse zeolite particles with respect to the whole volume of the plurality of zeolite particles is from 40 to 90 vol%, in the zeolite material, a ratio of a volume of the inorganic binding material with respect to the whole volume of the zeolite material is from 5 to 50 vol%, and a zeolite raw material containing the plurality of zeolite particles and the inorganic binding material is extruded to form the zeolite structure; the average particle diameter of the fine zeolite particles being from 0.3 to 5 pm; and the average particle diameter of the coarse zeolite particles being from 5 to 50 μm. a zeolite material containing a plurality of zeolite particles and an inorganic binding material which binds the zeolite particles to one another, wherein the plurality of zeolite particles include fine zeolite particles having a small average particle diameter and coarse zeolite particles which have an average particle diameter of three or more times the average particle diameter of the fine zeolite particles and which are not an agglomerated material of primary particles, the particles exhibiting a bimodal particle size distribution having a first peak due to the fine zeolite particles having small particle diameters and a second peak due to the coarse zeolite particles, wherein a ratio of volumes of the coarse zeolite particles with respect to the whole volume of the plurality of zeolite particles is from 40 to 90 vol%, in the zeolite material, a ratio of a volume of the inorganic binding material with respect to the whole volume of the zeolite material is from 5 to 50 vol%, and a zeolite raw material containing the plurality of zeolite particles and the inorganic binding material is extruded to form the zeolite structure; the average particle diameter of the fine zeolite particles being from 0.3 to 5 pm; and the average particle diameter of the coarse zeolite particles being from 5 to 50 μm.
A method for producing vertical bipolar transistors having different voltage breakdown and high-frequency performance characteristics on a single die, the method comprising the steps of: forming, for each of the vertical bipolar transistors, a buried collector region, and base (4, 6) and emitter regions above the buried collector region, wherein the base region (4, 6) comprises an intrinsic base region and an extrinsic base region, the emitter region being formed in the intrinsic base region, wherein for a first one of the vertical bipolar transistors, the lateral extensions and locations of the base (4,6) and emitter regions, and of the buried collector region are selected such that the base (4, 6) and emitter regions overlap with the buried collector region, as seen from above so that the overlap extends along the complete extension of the base (4, 6) and emitter regions, as seen from above, and the buried collector region is present beneath the entire first vertical bipolar transistor, and characterized in that in a second one of the vertical bipolar transistors, the lateral extensions and locations of the base (4, 6) and emitter regions, and of the buried collector region are selected to be laterally separated, as seen from above, from the emitter region, so that the overlap extends along a portion only of the extension of the base and emitter regions and the second transistor has no buried collector region directly under the emitter region. forming, for each of the vertical bipolar transistors, a buried collector region, and base (4, 6) and emitter regions above the buried collector region, wherein the base region (4, 6) comprises an intrinsic base region and an extrinsic base region, the emitter region being formed in the intrinsic base region, wherein for a first one of the vertical bipolar transistors, the lateral extensions and locations of the base (4,6) and emitter regions, and of the buried collector region are selected such that the base (4, 6) and emitter regions overlap with the buried collector region, as seen from above so that the overlap extends along the complete extension of the base (4, 6) and emitter regions, as seen from above, and the buried collector region is present beneath the entire first vertical bipolar transistor, and characterized in that in a second one of the vertical bipolar transistors, the lateral extensions and locations of the base (4, 6) and emitter regions, and of the buried collector region are selected to be laterally separated, as seen from above, from the emitter region, so that the overlap extends along a portion only of the extension of the base and emitter regions and the second transistor has no buried collector region directly under the emitter region.
An electronic device, comprising: a plurality of pixel electrodes an active layer on the plurality of pixel electrodes an opposed electrode on the active layer and covering an entirety of upper and side surfaces of the active layer; a first encapsulation film directly on the opposed electrode and etched with the same pattern as the opposed electrode, and a second encapsulation film on the first encapsulation film wherein the opposed electrode and the first encapsulation film have a common planar shape, wherein outer sidewalls of the opposed electrode and outer sidewalls of the first encapsulation film are coplanar, and wherein the second encapsulation film covers upper and side surfaces of the first encapsulation film. a plurality of pixel electrodes an active layer on the plurality of pixel electrodes an opposed electrode on the active layer and covering an entirety of upper and side surfaces of the active layer; a first encapsulation film directly on the opposed electrode and etched with the same pattern as the opposed electrode, and a second encapsulation film on the first encapsulation film wherein the opposed electrode and the first encapsulation film have a common planar shape, wherein outer sidewalls of the opposed electrode and outer sidewalls of the first encapsulation film are coplanar, and wherein the second encapsulation film covers upper and side surfaces of the first encapsulation film.
A ventilation device, comprising at least one ventilator with at least one controllable respiratory gas source and a programmable control apparatus and at least one sensor apparatus for determining pressure and/or flow of the respiratory gas, wherein the control apparatus controls the respiratory gas source to specify a first ventilation pattern (regarding pressure, flow, volume, frequency), wherein in the ventilation device has three further sensor apparatuses (3, 30, 40), wherein one sensor apparatus has a plurality of individual sensors (3, 3', 3"...), which are designed to generate and/or measure electrical potentials and are designed to non-invasively determine the electrical impedance of the lung of a patient, wherein the second sensor apparatus is designed to non-invasively determine the carbon dioxide provision, wherein the third sensor apparatus is designed to non-invasively determine the oxygen provision of the patient, wherein the control apparatus analyzes the sensor measured values of the El sensor apparatus to determine the instantaneous ventilation of the lung during ventilation with the first ventilation pattern, wherein the control apparatus analyzes the sensor measured values of the second sensor apparatus to determine the instantaneous carbon dioxide provision, and wherein the control apparatus analyzes the sensor measured values of the third sensor apparatus to determine the instantaneous oxygen provision, characterized in that the control apparatus controls the respiratory gas source to specify a second ventilation pattern when the sensor apparatus has an increased EIT sum signal and/or a reduced EIT change frequency, compared to the first ventilation pattern, and a reduced measure of the oxygen provision, wherein the second ventilation pattern has an increased frequency, compared to the first ventilation pattern, and/or an at least temporary increase in the inspiration time and/or an adjustment of the PEEP.
An application device of sanitary hygiene products in the form of tablets or "soaps" containing foaming adhesive and or disinfecting products which can be positioned on a wall of a sanitary fixture comprising a forming unit of the product dispensed, equipped with a hole for the release of the product and distancing elements for the application of the product on the wall of a sanitary fixture, said distancing elements being suitable for resting on the above wall during application of the product, wherein the device comprises a primary container having deformable or flexible walls which can be squeezed for dispensing the product by pressure through an outlet mouth, wherein the mouth of said primary container is associated with said forming unit, characterized in that the device comprises a mechanical dispensing unit comprising at least coupling means with said forming unit and at least one movable thrust plane, suitable for being engaged with at least a portion of said deformable walls of the primary container for squeezing the primary container.
A filter assembly for filtering high molecular weight compounds from liquefied petroleum gas, namely for filtering hydrocarbons with more than 16 carbon atoms from liquefied petroleum gas, the filter assembly being characterized by: a first filter media pack configured to remove high molecular weight compounds, namely configured to remove hydrocarbons with more than 16 carbon atoms and a second filter media pack configured to remove high molecular weight compounds, namely configured to remove hydrocarbons with more than 16 carbon atoms, the second filter media pack located downstream from the first filter media pack; characterized in that the first filter media pack is configured to exhibit a change in upstream to downstream pressure differential of less than 200 percent upon reaching its functional capacity for high molecular weight compounds, and the second filter media pack is configured to exhibit a change in upstream to downstream pressure differential of greater than 200 percent upon reaching saturation of high molecular weight compounds, wherein the first filter media pack comprises activated carbon and wherein the second filter media pack comprises a fine fiber web with a pore size of no more than about 25 microns. a first filter media pack configured to remove high molecular weight compounds, namely configured to remove hydrocarbons with more than 16 carbon atoms and a second filter media pack configured to remove high molecular weight compounds, namely configured to remove hydrocarbons with more than 16 carbon atoms, the second filter media pack located downstream from the first filter media pack; characterized in that the first filter media pack is configured to exhibit a change in upstream to downstream pressure differential of less than 200 percent upon reaching its functional capacity for high molecular weight compounds, and the second filter media pack is configured to exhibit a change in upstream to downstream pressure differential of greater than 200 percent upon reaching saturation of high molecular weight compounds, wherein the first filter media pack comprises activated carbon and wherein the second filter media pack comprises a fine fiber web with a pore size of no more than about 25 microns.
Modular system for production of dried seafood products, wherein the module comprises a container, the container comprising: - a drying room for holding racks of seafood materials that are to become the dried seafood products, - an air heater configured for heating air in the drying room to exceed a selected minimum temperature, - a freezing unit configured for cooling air in the drying room and maintaining an air temperature below a selected maximum temperature, the selected maximum temperature being below freezing, and - a control unit configured for controlling the air temperature in the drying room via the freezing unit and the air heater, such that the air temperature is below 0 degree Celsius for a duration of a drying process of the seafood materials. - a drying room for holding racks of seafood materials that are to become the dried seafood products, - an air heater configured for heating air in the drying room to exceed a selected minimum temperature, - a freezing unit configured for cooling air in the drying room and maintaining an air temperature below a selected maximum temperature, the selected maximum temperature being below freezing, and - a control unit configured for controlling the air temperature in the drying room via the freezing unit and the air heater, such that the air temperature is below 0 degree Celsius for a duration of a drying process of the seafood materials. - a control unit configured for controlling the air temperature in the drying room via the freezing unit and the air heater, such that the air temperature is below 0 degree Celsius for a duration of a drying process of the seafood materials.
A download method based on a Management Data Input/Output, MDIO, interface, characterized by comprising: a master device informing, through an MDIO protocol command, a slave device of using the MDIO interface to start downloading data packets in batches, wherein the MDIO protocol command comprises download register information, wherein the download register information comprises serial numbers of the data packets transmitted in batches by the master device to the slave device; the master device transmitting data packets in batches to the slave device by using MDIO frames, wherein each MDIO frame comprises: a data packet address field and a data packet serial number field, wherein the data packet address field is used to indicate a relative address of one data packet in the slave device, and the data packet serial number field is used to indicate a location of said one data packet in multiple data packets; the slave device receiving the MDIO frames transmitted by the master device, parsing out data packets from the MDIO frames, and storing data of the data packets in the slave device according to the addresses indicated by the data packet address fields or according to the serial numbers indicated by the data packet serial number fields; and the slave device judging, according to the serial numbers of the data packets, that a received data packet is a last data packet of a current batch transmission from the master device, and finishing a current batch download. a master device informing, through an MDIO protocol command, a slave device of using the MDIO interface to start downloading data packets in batches, wherein the MDIO protocol command comprises download register information, wherein the download register information comprises serial numbers of the data packets transmitted in batches by the master device to the slave device; the master device transmitting data packets in batches to the slave device by using MDIO frames, wherein each MDIO frame comprises: a data packet address field and a data packet serial number field, wherein the data packet address field is used to indicate a relative address of one data packet in the slave device, and the data packet serial number field is used to indicate a location of said one data packet in multiple data packets; the slave device receiving the MDIO frames transmitted by the master device, parsing out data packets from the MDIO frames, and storing data of the data packets in the slave device according to the addresses indicated by the data packet address fields or according to the serial numbers indicated by the data packet serial number fields; and the slave device judging, according to the serial numbers of the data packets, that a received data packet is a last data packet of a current batch transmission from the master device, and finishing a current batch download.
A wireless communication apparatus (132, 600) configured to apply Bluetooth Low Energy protocol, the apparatus (132, 600) comprising: means for operating in one of a plurality of states, said plurality of states comprising at least a discoverable state wherein the wireless communication apparatus (132, 600) is discoverable but not connectable, and a connectable state wherein the wireless communication apparatus (132, 600) is both discoverable and connectable; means for transmitting one or more indicators indicative of the state in which it is being operated; means for receiving, when being operated in the discoverable state, one or more requests from a remote wireless communication apparatus; and means for changing from the discoverable state to the connectable state in response to said requests fulfilling predefined criteria, wherein said predefined criteria comprises an identity or address indicated for said remote wireless communication apparatus in said requests matching one of the allowable identities or addresses. means for operating in one of a plurality of states, said plurality of states comprising at least a discoverable state wherein the wireless communication apparatus (132, 600) is discoverable but not connectable, and a connectable state wherein the wireless communication apparatus (132, 600) is both discoverable and connectable; a discoverable state wherein the wireless communication apparatus (132, 600) is discoverable but not connectable, and a connectable state wherein the wireless communication apparatus (132, 600) is both discoverable and connectable; means for transmitting one or more indicators indicative of the state in which it is being operated; means for receiving, when being operated in the discoverable state, one or more requests from a remote wireless communication apparatus; and means for changing from the discoverable state to the connectable state in response to said requests fulfilling predefined criteria, wherein said predefined criteria comprises an identity or address indicated for said remote wireless communication apparatus in said requests matching one of the allowable identities or addresses.
A method of calculating the concentration of a labeled protein or peptide synthesized in the CNS and an unlabeled protein or peptide synthesized in the CNS in a subject comprising: (a) providing a sample previously obtained from a subject having been previously administered with one or more labeled amino acids, wherein the labeled amino acids have become incorporated into a protein or peptide synthesized in the CNS such that the sample comprises a labeled fraction of a protein or peptide synthesized in the CNS and an unlabeled fraction of a protein or peptide synthesized in the CNS; (b) contacting the sample from a subject with a Quantitation Standard wherein the Quantitation Standard includes a known concentration of a protein or peptide synthesized in the CNS that is labeled with a moiety that has a molecular weight that differs from the one or more labeled amino acids previously administered to the subject; (c) isolating the labeled and unlabeled proteins or peptides from the sample; (d) determining a ratio of the unlabeled protein or peptide in the sample to the Quantitation Standard and determining a ratio of the labeled protein or peptide in the sample to the Quantitation Standard; and (e) calculating the concentration of the unlabeled protein or peptide and the labeled protein or peptide in the sampler, wherein the subject is a patient or a culture of cells. (a) providing a sample previously obtained from a subject having been previously administered with one or more labeled amino acids, wherein the labeled amino acids have become incorporated into a protein or peptide synthesized in the CNS such that the sample comprises a labeled fraction of a protein or peptide synthesized in the CNS and an unlabeled fraction of a protein or peptide synthesized in the CNS; (b) contacting the sample from a subject with a Quantitation Standard wherein the Quantitation Standard includes a known concentration of a protein or peptide synthesized in the CNS that is labeled with a moiety that has a molecular weight that differs from the one or more labeled amino acids previously administered to the subject; (c) isolating the labeled and unlabeled proteins or peptides from the sample; (d) determining a ratio of the unlabeled protein or peptide in the sample to the Quantitation Standard and determining a ratio of the labeled protein or peptide in the sample to the Quantitation Standard; and (e) calculating the concentration of the unlabeled protein or peptide and the labeled protein or peptide in the sampler, wherein the subject is a patient or a culture of cells.