mhurhangee/ep-ind-claims huggingface dataset:
A carrier cell, comprising an oncolytic virus, wherein: the virus can replicate in the carrier cell; the carrier cell can be administered to a human subject; the carrier cell has been treated or modified or both to enhance the immunosuppressive properties or immunoprivileged properties of the cell for administration to a human subject, wherein the treated or modified carrier cell is: an engineered cell that expresses single-chain antibodies that target or deplete NK and/or NKT cells, and/or γδ T cells, and/or an engineered cell that expresses protein antagonists of complement proteins and/or protein antagonists of neutralizing antibodies; and optionally, the cell has been treated or modified to enhance amplification of the virus in the cell, wherein the treatment or modification comprises loading the cell with a growth factor or a cytokine. the virus can replicate in the carrier cell; the carrier cell can be administered to a human subject; the carrier cell has been treated or modified or both to enhance the immunosuppressive properties or immunoprivileged properties of the cell for administration to a human subject, wherein the treated or modified carrier cell is: an engineered cell that expresses single-chain antibodies that target or deplete NK and/or NKT cells, and/or γδ T cells, and/or an engineered cell that expresses protein antagonists of complement proteins and/or protein antagonists of neutralizing antibodies; and an engineered cell that expresses single-chain antibodies that target or deplete NK and/or NKT cells, and/or γδ T cells, and/or an engineered cell that expresses protein antagonists of complement proteins and/or protein antagonists of neutralizing antibodies; and optionally, the cell has been treated or modified to enhance amplification of the virus in the cell, wherein the treatment or modification comprises loading the cell with a growth factor or a cytokine.
A porous concrete having a solids web structure which surrounds pores resulting from a foam or produced by a propellant process, wherein the porous concrete has a block compression strength of 2.0 to 3.5 N/mm 2, a thermal conductivity of 0.075 to 0.1 W/mK and a bulk density of between 300 and 400 kg/m 3, characterized in that the solids web structure has more than 10 and up to 20% by weight silica granules, of which a proportion is ground silica with an average grain diameter (d 50) of under 0.1 mm and a proportion is silica sand with an average grain diameter (d 50) of between 0.4 and 0.6 mm.
A hot-water supply and heating system comprising: a hot water storage tank; a first water outlet from which water inside the hot water storage tank comes out; a first water inlet through which water enters into the hot water storage tank; a water heater configured to heat water; a water pump; a heat accumulating water path that connects the first water outlet, the water pump, the water heater, and the first water inlet in this order; a second water outlet from which water to be supplied to an external indoor-heating device comes out; a second water inlet into which water returned from the indoor-heating device enters; an indoor-heating water path that connects the second water inlet, the water pump, the water heater, and the second water outlet in this order; and a switching valve configured to switch between the heat accumulating water path and the indoor-heating water path, wherein an overlap portion in which the heat accumulating water path overlaps the indoor-heating water path is provided, characterized in that a narrowed portion is provided in a pipe that forms the heat accumulating water path other than the overlap portion, a flow channel cross-sectional area of the narrowed portion being smaller than a flow channel cross-sectional area of a pipe that forms the overlap portion, such that a pressure loss of the heat accumulating water path is higher than a pressure loss of the indoor-heating water path. a hot water storage tank; a first water outlet from which water inside the hot water storage tank comes out; a first water inlet through which water enters into the hot water storage tank; a water heater configured to heat water; a water pump; a heat accumulating water path that connects the first water outlet, the water pump, the water heater, and the first water inlet in this order; a second water outlet from which water to be supplied to an external indoor-heating device comes out; a second water inlet into which water returned from the indoor-heating device enters; an indoor-heating water path that connects the second water inlet, the water pump, the water heater, and the second water outlet in this order; and a switching valve configured to switch between the heat accumulating water path and the indoor-heating water path, wherein an overlap portion in which the heat accumulating water path overlaps the indoor-heating water path is provided, characterized in that a narrowed portion is provided in a pipe that forms the heat accumulating water path other than the overlap portion, a flow channel cross-sectional area of the narrowed portion being smaller than a flow channel cross-sectional area of a pipe that forms the overlap portion, such that a pressure loss of the heat accumulating water path is higher than a pressure loss of the indoor-heating water path.
Cradle for an electric machine, the electric machine comprising a stator, a transmission shaft, a rotor connected to the shaft, and two bearings (16A; 16B) of the flange-mounted type for supporting the transmission shaft, the cradle comprising a frame delimiting a seat for receiving part of the machine, the frame extending in a vertical direction and comprising a lower edge and an upper edge, the lower edge being intended for connection to a support, the upper edge comprising one or two receiving seats (56A; 56B), each receiving seat (56A; 56B) being able to receive a respective bearing (16A; 16B) and comprising a base wall and two side walls, the height of the or each side wall in the vertical direction being at least equal to a fifth of the height of the frame in the vertical direction, preferably at least equal to a quarter of the height of the frame in the vertical direction, characterized in that each bearing (16A, 16B) is linked by a mounting recessed within a receiving seat (56A, 56B) and the frame comprises two longitudinal flanks extending substantially in a longitudinal direction, two transverse flanks extending substantially in a transverse direction and mechanically connected to the longitudinal flanks, and in that the frame also comprises at least one additional flank arranged between a longitudinal flank and a respective transverse flank and extending obliquely with respect to the longitudinal and transverse directions.
A switch, comprising: a storage device configured to store a port profile in association with a datacenter domain, wherein the datacenter domain indicates a set of ports associated with a datacenter, and wherein the port profile includes configuration information associated with one or more media access control, MAC, addresses; a port profile module configured to: identify the port profile in response to identifying that a source MAC address of a packet is associated with the datacenter domain, wherein the source MAC address is in the one or more MAC addresses; and apply the port profile to an ingress port of the packet; a virtual network module configured to include a global virtual local area network, VLAN, tag in the packet received at the ingress port; a tag management module configured to generate the global VLAN tag based on the datacenter domain and an edge VLAN tag included in the packet received at the ingress port; and a forwarding module configured to identify an egress port for the packet based on the global VLAN tag. a storage device configured to store a port profile in association with a datacenter domain, wherein the datacenter domain indicates a set of ports associated with a datacenter, and wherein the port profile includes configuration information associated with one or more media access control, MAC, addresses; a port profile module configured to: identify the port profile in response to identifying that a source MAC address of a packet is associated with the datacenter domain, wherein the source MAC address is in the one or more MAC addresses; and apply the port profile to an ingress port of the packet; identify the port profile in response to identifying that a source MAC address of a packet is associated with the datacenter domain, wherein the source MAC address is in the one or more MAC addresses; and apply the port profile to an ingress port of the packet; a virtual network module configured to include a global virtual local area network, VLAN, tag in the packet received at the ingress port; a tag management module configured to generate the global VLAN tag based on the datacenter domain and an edge VLAN tag included in the packet received at the ingress port; and a forwarding module configured to identify an egress port for the packet based on the global VLAN tag.
Temperature regulation device, notably a cooling device, for an electrical component liable to give off heat during operation, notably for an electrical energy storage module, this device having an upper plate and a lower plate joined to the upper plate such that the plates together form a plurality of circulation channels for a heat transfer fluid, notably a refrigerant fluid, notably a fluid selected from the following refrigerant fluids R134a, R1234yf and R744, in which device at least some of the channels lead into at least one diverting chamber, by virtue of which the fluid can make a diversion, in which device at least one of the diverting chamber and the channels has a mechanical reinforcing element formed on a wall of this diverting chamber or of one of the channels, this reinforcing element being designed to improve the mechanical resistance of the chamber and/or of the channel to potential deformations under the action of high pressure, characterized in that the one or more reinforcing elements are formed by stamping.
A light source for spectroscopic analysis, which is used when analyzing a solid-phase sample or a liquid-phase sample by irradiating the sample with light and by measuring a spectrum of light from the sample that has been irradiated, the light source comprising: a pulse laser source; a nonlinear element that outputs supercontinuum light by producing a nonlinear effect in light from the pulse laser source, the supercontinuum light having a wavelength range including 1100 nm to 1200 nm; and a pulse stretching element that broadens a pulse width of the supercontinuum light from the nonlinear element, wherein the pulse stretching element is an element that performs pulse stretching such that a relationship between wavelength and elapsed time within one pulse in the wavelength range of 1100 nm to 1200 nm are in a one-to-one correspondence, and that performs the pulse stretching such that time dispersion per 1 nm of wavelength is 10 picoseconds or greater, characterized in that the pulse stretching element is an element that performs the pulse stretching such that a spectral intensity flatness in the wavelength range of 1100 nm to 1200 nm is within ±50%. a pulse laser source; a nonlinear element that outputs supercontinuum light by producing a nonlinear effect in light from the pulse laser source, the supercontinuum light having a wavelength range including 1100 nm to 1200 nm; and a pulse stretching element that broadens a pulse width of the supercontinuum light from the nonlinear element, wherein the pulse stretching element is an element that performs pulse stretching such that a relationship between wavelength and elapsed time within one pulse in the wavelength range of 1100 nm to 1200 nm are in a one-to-one correspondence, and that performs the pulse stretching such that time dispersion per 1 nm of wavelength is 10 picoseconds or greater, characterized in that the pulse stretching element is an element that performs the pulse stretching such that a spectral intensity flatness in the wavelength range of 1100 nm to 1200 nm is within ±50%.
A wind turbine control system comprising: at least one control module (30a-d) configured to output a control signal for a control mechanism of a wind turbine, a gain calculator for calculating a gain parameter associated with the control module (30a-d), and a computerised real-time blade model using a determined wind turbine operating point as an input, the computerised real-time blade model comprising: a wind speed estimation module arranged to determine an estimated rotor-plane wind speed value, and an aerodynamic sensitivity calculator module arranged to determine an aerodynamic sensitivity value based on the estimated rotor-plane wind speed value and the determined wind turbine operating point; wherein the gain parameter is calculated based on the aerodynamic sensitivity value. at least one control module (30a-d) configured to output a control signal for a control mechanism of a wind turbine, a gain calculator for calculating a gain parameter associated with the control module (30a-d), and a computerised real-time blade model using a determined wind turbine operating point as an input, the computerised real-time blade model comprising: a wind speed estimation module arranged to determine an estimated rotor-plane wind speed value, and an aerodynamic sensitivity calculator module arranged to determine an aerodynamic sensitivity value based on the estimated rotor-plane wind speed value and the determined wind turbine operating point; a wind speed estimation module arranged to determine an estimated rotor-plane wind speed value, and an aerodynamic sensitivity calculator module arranged to determine an aerodynamic sensitivity value based on the estimated rotor-plane wind speed value and the determined wind turbine operating point; wherein the gain parameter is calculated based on the aerodynamic sensitivity value.
A shaker separator comprising: a pair of opposed side walls; a plurality of support cross members extending between the opposed side walls; a shaker screen support affixed to each support cross member; a plurality of lateral shaker screen supports, wherein at least one lateral shaker screen support is affixed to each side wall; a substantially inflexible gasket affixed to each of the shaker screen supports and lateral shaker screen supports; a flexible gasket mounted to each of the shaker screen supports and lateral shaker screen supports and adjacent to the corresponding substantially inflexible gasket; a screen having a screen frame selectively located on the flexible and substantially inflexible gaskets affixed to the opposing lateral screen supports and to the shaker screen supports between the side walls; at least one wedge block retainer bracket affixed to each side wall and spaced above a corresponding section of the screen frame; a wedge block selectively drivable between each wedge block retainer bracket and a corresponding portion of the screen frame, wherein the wedge block is configured to provide force to the corresponding section of the screen frame sufficient to seat the screen frame against the substantially inflexible gasket and to compress the corresponding flexible gasket to provide a fluid tight connection between the shaker screen frame and the shaker screen support. a pair of opposed side walls; a plurality of support cross members extending between the opposed side walls; a shaker screen support affixed to each support cross member; a plurality of lateral shaker screen supports, wherein at least one lateral shaker screen support is affixed to each side wall; a substantially inflexible gasket affixed to each of the shaker screen supports and lateral shaker screen supports; a flexible gasket mounted to each of the shaker screen supports and lateral shaker screen supports and adjacent to the corresponding substantially inflexible gasket; a screen having a screen frame selectively located on the flexible and substantially inflexible gaskets affixed to the opposing lateral screen supports and to the shaker screen supports between the side walls; at least one wedge block retainer bracket affixed to each side wall and spaced above a corresponding section of the screen frame; a wedge block selectively drivable between each wedge block retainer bracket and a corresponding portion of the screen frame, wherein the wedge block is configured to provide force to the corresponding section of the screen frame sufficient to seat the screen frame against the substantially inflexible gasket and to compress the corresponding flexible gasket to provide a fluid tight connection between the shaker screen frame and the shaker screen support.
A pressure release valve for ventilation comprising a main body having a first gas chamber, a second gas chamber, at least an inlet duct for supplying a gas to the first gas chamber and an outlet duct for releasing the gas from the first gas chamber, whereby said outlet duct and said inlet duct form said first gas chamber, wherein the first gas chamber and the second gas chamber are connected at least by a first passage opening, a proportional valve for temporally sealing the first gas chamber from the second gas chamber, while the second gas chamber comprises at least a second passage opening for releasing the gas from the second gas chamber and the second gas chamber comprises a port for connecting a pressure measurement apparatus for measuring the gas pressure in the second gas chamber.
A shaving cartridge comprising: a housing having a top surface, a bottom surface, a front edge, a rear edge, and a pair of side edges (105, 107) extending between the front edge and the rear edge, the housing having at least one blade disposed between the front edge and the rear edge, the at least one blade having a cutting edge; and a pair of substantially c-shaped retainers each having a top portion, a bottom portion, a substantially convex portion connecting the top portion to the bottom portion, the retainers extending along the pair of side edges (105; 107) between the front edge of the housing and the rear edge of the housing, wherein the top portion of each of the retainers is substantially planar and the bottom portion of each of the retainers is curved, wherein each of the pair of substantially c-shaped retainers has an inner surface extending throughout an internal surface of the retainer's top portion, bottom portion and convex portion, the inner surfaces being in contact with the housing of the shaving cartridge, characterized in that each retainer is substantially c-shaped in a cross-sectional view of the razor cartridge with the attached retainers along a line extending from one side edge of the pair of side edges (105, 107) to the opposite side edge of the pair of side edges (105, 107). a housing having a top surface, a bottom surface, a front edge, a rear edge, and a pair of side edges (105, 107) extending between the front edge and the rear edge, the housing having at least one blade disposed between the front edge and the rear edge, the at least one blade having a cutting edge; and a pair of substantially c-shaped retainers each having a top portion, a bottom portion, a substantially convex portion connecting the top portion to the bottom portion, the retainers extending along the pair of side edges (105; 107) between the front edge of the housing and the rear edge of the housing, wherein the top portion of each of the retainers is substantially planar and the bottom portion of each of the retainers is curved, wherein each of the pair of substantially c-shaped retainers has an inner surface extending throughout an internal surface of the retainer's top portion, bottom portion and convex portion, the inner surfaces being in contact with the housing of the shaving cartridge, characterized in that each retainer is substantially c-shaped in a cross-sectional view of the razor cartridge with the attached retainers along a line extending from one side edge of the pair of side edges (105, 107) to the opposite side edge of the pair of side edges (105, 107).
A method for performing interworking between different messaging services in a converged IP Messaging, CPM, service by a server, comprising: receiving a message generated by an arbitrary terminal; requesting a presence server to provide presence information corresponding to a recipient terminal of the message, wherein the presence information comprises: a type of a messaging service supportable to the recipient terminal corresponding to the presence information, a grant/non-grant of messaging interworking, a type of a messaging service preferred during interworking, and a priority of a preference when there are various types of preferred messaging services; upon receiving the presence information that is transmitted from the presence server in response to the request, deciding a type of a messaging service for interworking based on the presence information; and transmitting the message, comprising information about the decided type of messaging service, to an Interworking Function, IWF, according to the decided type of the messaging service, wherein the message is converted by the IWF according to the decided type of the messaging service, and the converted message is transmitted to the recipient terminal. receiving a message generated by an arbitrary terminal; requesting a presence server to provide presence information corresponding to a recipient terminal of the message, wherein the presence information comprises: a type of a messaging service supportable to the recipient terminal corresponding to the presence information, a grant/non-grant of messaging interworking, a type of a messaging service preferred during interworking, and a priority of a preference when there are various types of preferred messaging services; upon receiving the presence information that is transmitted from the presence server in response to the request, deciding a type of a messaging service for interworking based on the presence information; and transmitting the message, comprising information about the decided type of messaging service, to an Interworking Function, IWF, according to the decided type of the messaging service, wherein the message is converted by the IWF according to the decided type of the messaging service, and the converted message is transmitted to the recipient terminal.
A method for processing an MLP request, the method comprising: receiving, at an H-SLP, an MLP request to locate a SET; determining to utilize a first D-SLP which has been previously authorized by the H-SLP to locate the SET; and transmitting the MLP request from the H-SLP to the first D-SLP, wherein transmitting the MLP request from the H-SLP to the first D-SLP comprises RLP tunneling the MLP request from the H-SLP to the first D-SLP. receiving, at an H-SLP, an MLP request to locate a SET; determining to utilize a first D-SLP which has been previously authorized by the H-SLP to locate the SET; and transmitting the MLP request from the H-SLP to the first D-SLP, wherein transmitting the MLP request from the H-SLP to the first D-SLP comprises RLP tunneling the MLP request from the H-SLP to the first D-SLP.