mhurhangee/ep-ind-claims huggingface dataset:
A system for generating inerting gas on an aircraft, the system comprising: a proton exchange membrane inerting system; and a pure water replenishment system configured to provide pure water to the PEM inerting system, wherein the pure water replenishment system is in fluid communication with the PEM inerting system to replenish water lost during operation of the PEM inerting system; wherein: water is supplied to the pure water replenishment system from a domestic water tank onboard the aircraft; and wherein the pure water replenishment system comprises a water purification system (710, 810, 910, 1010, 1110) to treat water from the domestic water tank and generate pure water to be supplied to the PEM inerting system, and characterized in that a portion of the treated water is resupplied into a domestic water system after passing through the water purification system. a proton exchange membrane inerting system; and a pure water replenishment system configured to provide pure water to the PEM inerting system, wherein the pure water replenishment system is in fluid communication with the PEM inerting system to replenish water lost during operation of the PEM inerting system; wherein: water is supplied to the pure water replenishment system from a domestic water tank onboard the aircraft; and wherein the pure water replenishment system comprises a water purification system (710, 810, 910, 1010, 1110) to treat water from the domestic water tank and generate pure water to be supplied to the PEM inerting system, and characterized in that a portion of the treated water is resupplied into a domestic water system after passing through the water purification system. water is supplied to the pure water replenishment system from a domestic water tank onboard the aircraft; and wherein the pure water replenishment system comprises a water purification system (710, 810, 910, 1010, 1110) to treat water from the domestic water tank and generate pure water to be supplied to the PEM inerting system, and characterized in that a portion of the treated water is resupplied into a domestic water system after passing through the water purification system.
A variant PD-L1 polypeptide, comprising an IgV domain or both an IgV domain and an IgC domain, wherein the variant PD-L1 polypeptide comprises an amino acid substitution in an unmodified human PD-L1 corresponding to amino acid substitution N45D with reference to the numbering of SEQ ID NO:30, wherein the variant PD-L1 polypeptide specifically binds to the ectodomain of PD-1 with increased affinity compared to the binding of the unmodified human PD-L1 to the ectodomain of PD-1; wherein the unmodified PD-L1 comprises the sequence of amino acids set forth in SEQ ID NO:30 or a portion thereof comprising the IgV domain or the IgV domain and IgC domain; and wherein the variant PD-L1 polypeptide comprises a sequence of amino acids that exhibits at least 85%, 86%, 87%, 88%, 89%, 90%, 91%, 92%, 93%, 94%, 95%, 96%, 97%, 98% or 99% sequence identity to SEQ ID NO:30, 55, 309 or 1728. wherein the unmodified PD-L1 comprises the sequence of amino acids set forth in SEQ ID NO:30 or a portion thereof comprising the IgV domain or the IgV domain and IgC domain; and wherein the variant PD-L1 polypeptide comprises a sequence of amino acids that exhibits at least 85%, 86%, 87%, 88%, 89%, 90%, 91%, 92%, 93%, 94%, 95%, 96%, 97%, 98% or 99% sequence identity to SEQ ID NO:30, 55, 309 or 1728.
A system comprising: a plurality of computing devices coupled to a network device port of a network device via a cable comprising a first optical waveguide and a second optical waveguide, wherein: each of the computing devices is arranged to: obtain a plurality of output signals at a plurality of output lanes (L0 o -L3 o) of the respective computing device; characterized in that each of the computing devices is further arranged to: based on management data obtained from the network device port through the first optical waveguide, select from the plurality of output signals a respective set of selected signals; using a lane switch, selectively assign to each of the selected signals a respective one of a plurality of predefined wavelengths (λ1, λ2, λ3, λ4) in accordance with the management data; and provide to the network device port, through the second optical waveguide, an optical output signal representing each of the selected signals using the wavelength (λ1, λ2, λ3, λ4) assigned to the selected signal. each of the computing devices is arranged to: obtain a plurality of output signals at a plurality of output lanes (L0 o -L3 o) of the respective computing device; obtain a plurality of output signals at a plurality of output lanes (L0 o -L3 o) of the respective computing device; characterized in that each of the computing devices is further arranged to: based on management data obtained from the network device port through the first optical waveguide, select from the plurality of output signals a respective set of selected signals; using a lane switch, selectively assign to each of the selected signals a respective one of a plurality of predefined wavelengths (λ1, λ2, λ3, λ4) in accordance with the management data; and provide to the network device port, through the second optical waveguide, an optical output signal representing each of the selected signals using the wavelength (λ1, λ2, λ3, λ4) assigned to the selected signal. based on management data obtained from the network device port through the first optical waveguide, select from the plurality of output signals a respective set of selected signals; using a lane switch, selectively assign to each of the selected signals a respective one of a plurality of predefined wavelengths (λ1, λ2, λ3, λ4) in accordance with the management data; and provide to the network device port, through the second optical waveguide, an optical output signal representing each of the selected signals using the wavelength (λ1, λ2, λ3, λ4) assigned to the selected signal.
A method for wireless communication, comprising: receiving at a mobile device from a server via a wireless communication channel a request for an identifier (104, 108) corresponding to a network device (102, 102', 106, 106'); transmitting from said mobile device to said server said identifier in response to said request; receiving at said mobile device from said server a network identifier corresponding to said network device; using at said mobile device said network identifier to establish communication with said network device via said wireless communication channel; and performing a synchronization process between said mobile device and said network device, wherein the synchronization process includes synchronization of data stored in the mobile device and the network device. receiving at a mobile device from a server via a wireless communication channel a request for an identifier (104, 108) corresponding to a network device (102, 102', 106, 106'); transmitting from said mobile device to said server said identifier in response to said request; receiving at said mobile device from said server a network identifier corresponding to said network device; using at said mobile device said network identifier to establish communication with said network device via said wireless communication channel; and performing a synchronization process between said mobile device and said network device, wherein the synchronization process includes synchronization of data stored in the mobile device and the network device.
System comprising a power steering pump of a utility vehicle, a shaft for driving the power steering pump, a gear drive comprising an output gear, and a device for coupling the shaft to the output gear, wherein the shaft can be fixed in an axial direction parallel to an axis of rotation of the shaft by way of a retaining ring, wherein grooves (24, 26) assigned to the retaining ring are arranged on the output gear and on the shaft, and wherein the grooves (24, 26) run between teeth provided on the shaft and on the output gear, wherein flanks of the teeth facing towards the retaining ring are rounded off, in order to avoid peak forces and chipping.
A high electron mobility transistor (HEMT) that eliminates the need for electrical connection by wire bonding in an integrated circuit wherein the HEMT comprises: a silicon carbide substrate; at least one epitaxial layer of a wide band-gap semiconductor material on said silicon carbide substrate, said at least one epitaxial layer comprising a lower surface and an upper surface opposite said silicon carbide substrate, wherein the at least one epitaxial layer includes: a GaN channel layer on the silicon carbide substrate; and a AlGaN barrier layer on the channel layer, the barrier layer having a bandgap energy that is greater than a bandgap energy of the channel layer; respective contacts (78, 79, 80) on said at least one epitaxial layer for defining source, gate, and drain regions in said at least one epitaxial layer, wherein the contacts are formed entirely over, and directly on, the barrier layer; and at least one conductive via extending through said silicon carbide substrate and said at least one epitaxial layer, each conductive via terminating on one of said source, gate, or drain contacts, thereby providing an electrically conductive path through said silicon carbide substrate and said at least one epitaxial layer to said source, gate, or drain contact. a silicon carbide substrate; at least one epitaxial layer of a wide band-gap semiconductor material on said silicon carbide substrate, said at least one epitaxial layer comprising a lower surface and an upper surface opposite said silicon carbide substrate, wherein the at least one epitaxial layer includes: a GaN channel layer on the silicon carbide substrate; and a AlGaN barrier layer on the channel layer, the barrier layer having a bandgap energy that is greater than a bandgap energy of the channel layer; a GaN channel layer on the silicon carbide substrate; and a AlGaN barrier layer on the channel layer, the barrier layer having a bandgap energy that is greater than a bandgap energy of the channel layer; respective contacts (78, 79, 80) on said at least one epitaxial layer for defining source, gate, and drain regions in said at least one epitaxial layer, wherein the contacts are formed entirely over, and directly on, the barrier layer; and at least one conductive via extending through said silicon carbide substrate and said at least one epitaxial layer, each conductive via terminating on one of said source, gate, or drain contacts, thereby providing an electrically conductive path through said silicon carbide substrate and said at least one epitaxial layer to said source, gate, or drain contact.
A process producing amorphous silica from serpentine comprising the steps of: (a) mixing serpentine with a hydrochloric acid solution; (b) leaching the serpentine obtaining a slurry comprising a liquid fraction and a solid fraction containing silica and minerals; (c) separating the liquid fraction from the solid fraction; (d) removing the minerals from the solid fraction by magnetic separation producing a purified solid silica; (e) drying the purified solid silica at a temperature of 60 to 200°C; and (f) heating the purified solid silica at a temperature of 200 to 800°C to remove hydroxyl groups from the silica surface and reducing specific surface area of the resulting purified amorphous silica. (a) mixing serpentine with a hydrochloric acid solution; (b) leaching the serpentine obtaining a slurry comprising a liquid fraction and a solid fraction containing silica and minerals; (c) separating the liquid fraction from the solid fraction; (d) removing the minerals from the solid fraction by magnetic separation producing a purified solid silica; (e) drying the purified solid silica at a temperature of 60 to 200°C; and (f) heating the purified solid silica at a temperature of 200 to 800°C to remove hydroxyl groups from the silica surface and reducing specific surface area of the resulting purified amorphous silica.
A composition for forming a film, the composition comprising: hypromellose having methoxy group content of 28.0 to 30.0% by weight and hydroxypropoxy group content of 7.6 to 8.5% by weight, wherein a 2% by weight aqueous solution of the hypromellose provides a viscosity at 20°C of 4.0 to 6.5 mPa·s, a 20% by weight dispersion of the hypromellose provides a viscosity at 50°C of 2,000 to 11,000 mPa·s, and a 20% by weight aqueous solution of the hypromellose provides a gelation temperature of 54 to 57°C; and a solvent; wherein the gel temperature is measured by subjecting a sample to a distorsion with a frequency of 1Hz and amplitude of 1% while increasing a temperature of the sample from 20°C to 90°C at a rate of 2°C/min.
A method for indicating quasi co-location, QCL, indication information, comprising: generating, by a base station, reference signal configuration information, wherein each piece of reference signal configuration information is corresponding to one reference signal, and each reference signal is corresponding to at least one antenna port; performing, by the base station based on the reference signal configuration information, quasi co-location, QCL, assumption on reference signals corresponding to at least two antenna ports in the reference signals, to generate QCL indication information; and sending, by the base station, the QCL indication information to a terminal, wherein the reference signals corresponding to the at least two antenna ports comprise a reference signal used for phase noise and frequency shift estimation, wherein the sending, by the base station, the QCL indication information to the terminal comprises: sending, by the base station, the QCL indication information to the terminal by using signaling, wherein the signaling is a semi-static indication or a dynamic indication; and the signaling is at least one of a downlink control indication, radio resource control, or a physical downlink shared channel resource element mapping and a quasi co-location indicator in a downlink control indication. generating, by a base station, reference signal configuration information, wherein each piece of reference signal configuration information is corresponding to one reference signal, and each reference signal is corresponding to at least one antenna port; performing, by the base station based on the reference signal configuration information, quasi co-location, QCL, assumption on reference signals corresponding to at least two antenna ports in the reference signals, to generate QCL indication information; and sending, by the base station, the QCL indication information to a terminal, wherein the reference signals corresponding to the at least two antenna ports comprise a reference signal used for phase noise and frequency shift estimation, wherein the sending, by the base station, the QCL indication information to the terminal comprises: sending, by the base station, the QCL indication information to the terminal by using signaling, wherein the signaling is a semi-static indication or a dynamic indication; and the signaling is at least one of a downlink control indication, radio resource control, or a physical downlink shared channel resource element mapping and a quasi co-location indicator in a downlink control indication. sending, by the base station, the QCL indication information to the terminal by using signaling, wherein the signaling is a semi-static indication or a dynamic indication; and the signaling is at least one of a downlink control indication, radio resource control, or a physical downlink shared channel resource element mapping and a quasi co-location indicator in a downlink control indication.
A rechargeable battery comprising: first and second battery cells (C1, C2) facing each other; and a case comprising first and second insertion portions (110, 120), into which the first and second battery cells are respectively inserted in opposite insertion directions, and a circuit accommodator formed between the first and second insertion portions and accommodating a protection circuit configured to control charging and discharging operations of the first and second battery cells, wherein the circuit accommodator comprises: a main body integrally extending from the first and second insertion portions; and a cover coupled to the main body to form an accommodation space with the main body, and wherein the rechargeable battery further comprises a label sheet covering first and second surfaces of the first and second battery cells and the cover; wherein each of the first and second insertion portions comprises: a blocking portion defining assembly positions of the first and second battery cells; and characterized by a rim portion extending from the blocking portion, surrounding front ends of the first and second battery cells, and forming an opening where the first and second battery cells are accommodated. first and second battery cells (C1, C2) facing each other; and a case comprising first and second insertion portions (110, 120), into which the first and second battery cells are respectively inserted in opposite insertion directions, and a circuit accommodator formed between the first and second insertion portions and accommodating a protection circuit configured to control charging and discharging operations of the first and second battery cells, wherein the circuit accommodator comprises: a main body integrally extending from the first and second insertion portions; and a cover coupled to the main body to form an accommodation space with the main body, and wherein the rechargeable battery further comprises a label sheet covering first and second surfaces of the first and second battery cells and the cover; a main body integrally extending from the first and second insertion portions; and a cover coupled to the main body to form an accommodation space with the main body, and wherein the rechargeable battery further comprises a label sheet covering first and second surfaces of the first and second battery cells and the cover; wherein each of the first and second insertion portions comprises: a blocking portion defining assembly positions of the first and second battery cells; and characterized by a rim portion extending from the blocking portion, surrounding front ends of the first and second battery cells, and forming an opening where the first and second battery cells are accommodated. a blocking portion defining assembly positions of the first and second battery cells; and characterized by a rim portion extending from the blocking portion, surrounding front ends of the first and second battery cells, and forming an opening where the first and second battery cells are accommodated.
Hoisting device, in particular lift or lifting platform, having a drive unit for at least partially vertical hoisting of a load, whereby the drive unit has at least one drive motor (14, 24) and at least one drive element comprising a drive shaft, whereby at least one tensile element bearing a tensile load is arranged at least between the drive unit and the load, whereby at least one support unit is provided to support at least the drive motor (14, 24), whereby the drive unit comprises at least one reduction unit including the drive element and at least output element arranged on a driven shaft, whereby the reduction unit is formed with at least one traction means entwining the drive element and the output element as a traction drive, whereby the drive unit has at least one, in particular two, mount devices for rotatable mounting of the drive shaft that are spaced apart and arranged on either side of the drive element, and whereby the reduction unit has at least two mount devices for rotatable mounting of the driven shaft that are spaced apart and arranged on either side of the output element, characterised in that at least one support device (2, 5, 13) arranged on the front of the drive shaft and/or the driven shaft, receiving the mounting device of the drive unit or the mounting device of the reduction unit is provided, and that the support device (2, 5, 13) is substantially U-shaped.
Fuel-air mixing device with an air inlet, a constriction, at least one opening in the region of the constriction for feeding in, in particular, gaseous fuel, the opening being of adjustable configuration, a locking device for locking the adjustable opening being provided, characterized in that the locking device has a fixing screw.
A computer-implemented method for storing blockchain data, the method comprising: determining, by a blockchain node, historic state data associated with one or more blocks created prior to a current block on a blockchain; performing, by the blockchain node, error correction coding of the historic state data to generate one or more encoded historic state data; dividing, by the blockchain node based on one or more predetermined rules, the encoded historic state data to a plurality of data sets; selecting, by the blockchain node, one or more data sets from the plurality of data sets based on the one or more predetermined rules; hashing, by the blockchain node, the selected one or more data sets to generate one or more hash values corresponding to the selected one or more data sets; storing, by the blockchain node, the one or more hash values; and deleting, by the blockchain node, the selected one or more data sets, such that the blockchain node stores a portion of the plurality of data sets and the one or more hash values corresponding to remaining data sets of the plurality of data sets that are stored on other blockchain nodes. determining, by a blockchain node, historic state data associated with one or more blocks created prior to a current block on a blockchain; performing, by the blockchain node, error correction coding of the historic state data to generate one or more encoded historic state data; dividing, by the blockchain node based on one or more predetermined rules, the encoded historic state data to a plurality of data sets; selecting, by the blockchain node, one or more data sets from the plurality of data sets based on the one or more predetermined rules; hashing, by the blockchain node, the selected one or more data sets to generate one or more hash values corresponding to the selected one or more data sets; storing, by the blockchain node, the one or more hash values; and deleting, by the blockchain node, the selected one or more data sets, such that the blockchain node stores a portion of the plurality of data sets and the one or more hash values corresponding to remaining data sets of the plurality of data sets that are stored on other blockchain nodes.
A cartridge for purifying water, comprising: a first end having an inlet; a second end opposing the first end, the second end having an outlet; characterized in that the cartridge consists of a first layer having sodium zirconium phosphate (NaZrP), wherein NaZrP means the Na + form of zirconium phosphate ZrP, and a second layer having a combination of acid zirconium phosphate and alkaline hydrous zirconium oxide (NaHZO), wherein the AZP means the H + form of zirconium phosphate and the NaHZO means the alkaline form of hydrous zirconium oxide (ZrO 2) in which the zirconium is hydroxylated; wherein the first layer is disposed nearer to the inlet than the second layer, and the second layer succeeds the first layer. a first end having an inlet; a second end opposing the first end, the second end having an outlet; characterized in that the cartridge consists of a first layer having sodium zirconium phosphate (NaZrP), wherein NaZrP means the Na + form of zirconium phosphate ZrP, and a second layer having a combination of acid zirconium phosphate and alkaline hydrous zirconium oxide (NaHZO), wherein the AZP means the H + form of zirconium phosphate and the NaHZO means the alkaline form of hydrous zirconium oxide (ZrO 2) in which the zirconium is hydroxylated; wherein the first layer is disposed nearer to the inlet than the second layer, and the second layer succeeds the first layer.