mhurhangee/ep-ind-claims huggingface dataset:
A drained air cavity wall structure of a building comprising i) in order: - a load bearing wall; - a layer of thermal insulation, notably of mineral wool, secured to the load bearing wall having a major surface facing the drained air cavity; - the drained air cavity; - a masonry outer leaf; and ii) a fire propagation barrier, notably a mineral wool fire propagation barrier, provided across a width of the drained air cavity, the width of the drained air cavity being fully filled by a width of the fire propagation barrier; the fire propagation barrier is secured within the drained air cavity by a tie, the tie having a portion which engages with the fire propagation barrier, a portion which engages with the masonry outer leaf and preferably a portion which engages with the layer of thermal insulation; characterised in that the major surface of the layer of thermal insulation facing the drained air cavity provides a continuous planar insulation surface and the fire propagation barrier abuts said continuous planar insulation surface of the layer of thermal insulation. i) in order: - a load bearing wall; - a layer of thermal insulation, notably of mineral wool, secured to the load bearing wall having a major surface facing the drained air cavity; - the drained air cavity; - a masonry outer leaf; and - a load bearing wall; - a layer of thermal insulation, notably of mineral wool, secured to the load bearing wall having a major surface facing the drained air cavity; - the drained air cavity; - a masonry outer leaf; and ii) a fire propagation barrier, notably a mineral wool fire propagation barrier, provided across a width of the drained air cavity, the width of the drained air cavity being fully filled by a width of the fire propagation barrier; the fire propagation barrier is secured within the drained air cavity by a tie, the tie having a portion which engages with the fire propagation barrier, a portion which engages with the masonry outer leaf and preferably a portion which engages with the layer of thermal insulation; the major surface of the layer of thermal insulation facing the drained air cavity provides a continuous planar insulation surface and the fire propagation barrier abuts said continuous planar insulation surface of the layer of thermal insulation.
An assembly for a turbine engine combustion chamber, comprising: - a boss for a turbine engine combustion chamber, comprising a tubular body configured to be inserted into a reception port provided in an annular wall of a flame tube and adapted to accommodate a stem of an attachment pin of the flame tube on an outer casing, a first end of the boss comprising an annular collar configured to block radial translation of the boss in a first direction and a second end of the boss being configured to be crimped to the wall of the flame tube so as to block radial translation of the boss in a second direction, and characterized in that it further comprises: - an annular element configured to fit coaxially with the reception port and in radial contact with the annular wall of the flame tube on the one hand and with the annular collar of the boss on the other hand. - a boss for a turbine engine combustion chamber, comprising a tubular body configured to be inserted into a reception port provided in an annular wall of a flame tube and adapted to accommodate a stem of an attachment pin of the flame tube on an outer casing, a first end of the boss comprising an annular collar configured to block radial translation of the boss in a first direction and a second end of the boss being configured to be crimped to the wall of the flame tube so as to block radial translation of the boss in a second direction, and characterized in that it further comprises: - an annular element configured to fit coaxially with the reception port and in radial contact with the annular wall of the flame tube on the one hand and with the annular collar of the boss on the other hand.
A circulation pump unit having a wet-running electric motor, which has a stator, a rotor and a can arranged between the stator and the rotor, and at least one impeller connected to the rotor, the rotor running in the liquid to be conveyed and the liquid also being used at the same time for lubricating the bearings, the electric motor having motor electronics which are designed for electronically commutating the electric motor, characterized in that the motor electronics are designed in such a manner, that the commutation takes place on the basis of counter EMF and wherein the electric motor and the commutation are designed such that the electric motor initially starts in a positively controlled manner and then, when the electric motor transitions to regulated operation, the commutation only takes place properly if sufficient load is acting on the electric motor, and in that in a state, in which the rotor chamber in the interior of the can and/or the impeller is not filled with liquid, the load, which is acting on the electric motor, is reduced to such an extent that the desired commutation no longer takes place and the electric motor automatically stops and thus a stoppage of the rotor is effected.
A system for dispensing a liquid comprising: A. a pouch for placement into a dock, the pouch comprising (i) a flexible body and a base forming a closed chamber for holding a liquid; (ii) a closure for dispensing the liquid, the closure attached to a lower portion of the body; B. a dock comprising (i) a floor having a peripheral edge; (ii) a waist surrounding the peripheral edge and extending upward from the floor, the waist and the floor defining a seat for receiving the base; (iii) a front panel and a rear panel extending upward from opposing sides of the waist, the front panel and the rear panel separated by a gap; and (iv) an orifice on a front surface of the waist, the orifice for receiving the closure, characterised in that an upper end of the front panel stands freely with respect to an upper end of the rear panel and the gap enables the front panel and the rear panel to move relative to each other. A. a pouch for placement into a dock, the pouch comprising (i) a flexible body and a base forming a closed chamber for holding a liquid; (ii) a closure for dispensing the liquid, the closure attached to a lower portion of the body; (i) a flexible body and a base forming a closed chamber for holding a liquid; (ii) a closure for dispensing the liquid, the closure attached to a lower portion of the body; B. a dock comprising (i) a floor having a peripheral edge; (ii) a waist surrounding the peripheral edge and extending upward from the floor, the waist and the floor defining a seat for receiving the base; (iii) a front panel and a rear panel extending upward from opposing sides of the waist, the front panel and the rear panel separated by a gap; and (iv) an orifice on a front surface of the waist, the orifice for receiving the closure, characterised in that an upper end of the front panel stands freely with respect to an upper end of the rear panel and the gap enables the front panel and the rear panel to move relative to each other. (i) a floor having a peripheral edge; (ii) a waist surrounding the peripheral edge and extending upward from the floor, the waist and the floor defining a seat for receiving the base; (iii) a front panel and a rear panel extending upward from opposing sides of the waist, the front panel and the rear panel separated by a gap; and (iv) an orifice on a front surface of the waist, the orifice for receiving the closure, characterised in that an upper end of the front panel stands freely with respect to an upper end of the rear panel and the gap enables the front panel and the rear panel to move relative to each other.
A method of adjusting a final reflectance signal value measured on a lateral flow assay test strip, comprising: measuring reflectance signal values at a location on a test strip while performing lateral flow assay reaction on the test strip; determining an extreme reflectance signal value representing the minimum reflectance signal value at the location; determining an interim reflectance signal value, wherein the interim reflectance signal value is measured at the location a pre-determined time period after the extreme reflectance signal value is measured; determining a final reflectance signal value at the location after the interim reflectance signal value is determined; pre-determining a relationship between the interim signal value and the final signal value for the manufacturing lot from which the test strip has been made; and adjusting the final reflectance signal value based upon the interim reflectance signal value and the pre-determined relationship between the interim reflectance signal value and the final reflectance signal value for the manufacturing lot from which the test strip has been made, wherein the step of adjusting the final reflectance signal value is conducted after the step of determining the final reflectance signal value. measuring reflectance signal values at a location on a test strip while performing lateral flow assay reaction on the test strip; determining an extreme reflectance signal value representing the minimum reflectance signal value at the location; determining an interim reflectance signal value, wherein the interim reflectance signal value is measured at the location a pre-determined time period after the extreme reflectance signal value is measured; determining a final reflectance signal value at the location after the interim reflectance signal value is determined; pre-determining a relationship between the interim signal value and the final signal value for the manufacturing lot from which the test strip has been made; and adjusting the final reflectance signal value based upon the interim reflectance signal value and the pre-determined relationship between the interim reflectance signal value and the final reflectance signal value for the manufacturing lot from which the test strip has been made, wherein the step of adjusting the final reflectance signal value is conducted after the step of determining the final reflectance signal value.
A functional TCR α and/or β chain fusion protein recognizing and binding to at least one MHC-presented epitope, and containing at least two amino acid sequences recognizing and binding an antigen, wherein the TCR α and/or β chain fusion protein comprises an α-chain or β-chain in combination with a further α-chain or β-chain, respectively, or comprises an α-chain and a β-chain, wherein the epitope is a tumor cell epitope and the antigen is a tumor cell antigen, and wherein the TCR fusion protein is trifunctional, where the first function is the function of the TCR α and/or β chain fusion protein to recognize and bind to at least one MHC-presented epitope; the second and third are based on amino acid sequences recognizing and binding an antigen, and wherein i) the at least two antigen binding amino acid sequences are added to the N-terminus of the α and/or β chain, ii) the at least two antigen binding amino acid sequences are inserted into a constant or a variable region of said α and/or β chain, and/or iii) the at least two antigen binding amino acid sequences are replacing a number of amino acids in a constant or a variable region of said α and/or β chain. i) the at least two antigen binding amino acid sequences are added to the N-terminus of the α and/or β chain, ii) the at least two antigen binding amino acid sequences are inserted into a constant or a variable region of said α and/or β chain, and/or iii) the at least two antigen binding amino acid sequences are replacing a number of amino acids in a constant or a variable region of said α and/or β chain.
A display panel, comprising: a substrate; and a plurality of wavy first electrodes disposed on the substrate; wherein the plurality of first electrodes extend in parallel, and have an interval between adjacent first electrodes; wherein: in an extending direction of the first electrode, a width of the first electrode changes continuously, and the interval changes continuously; each side of the first electrode is formed by a plurality of circular arc-shaped sides or elliptical sides with the same radius of curvature, and two adjacent circular arc-shaped sides or the elliptical sides connected with each other of the plurality of circular arc-shaped sides or elliptical sides are protruded toward a same direction, to make diffraction fringes generated on the first electrode diffused in different directions, the width of the first electrode changes periodically in the extending direction thereof, and a length of one change period of the first electrode corresponds to a width of one pixel of the display panel. a substrate; and a plurality of wavy first electrodes disposed on the substrate; wherein the plurality of first electrodes extend in parallel, and have an interval between adjacent first electrodes; wherein: in an extending direction of the first electrode, a width of the first electrode changes continuously, and the interval changes continuously; each side of the first electrode is formed by a plurality of circular arc-shaped sides or elliptical sides with the same radius of curvature, and two adjacent circular arc-shaped sides or the elliptical sides connected with each other of the plurality of circular arc-shaped sides or elliptical sides are protruded toward a same direction, to make diffraction fringes generated on the first electrode diffused in different directions, the width of the first electrode changes periodically in the extending direction thereof, and a length of one change period of the first electrode corresponds to a width of one pixel of the display panel. in an extending direction of the first electrode, a width of the first electrode changes continuously, and the interval changes continuously; each side of the first electrode is formed by a plurality of circular arc-shaped sides or elliptical sides with the same radius of curvature, and two adjacent circular arc-shaped sides or the elliptical sides connected with each other of the plurality of circular arc-shaped sides or elliptical sides are protruded toward a same direction, to make diffraction fringes generated on the first electrode diffused in different directions, the width of the first electrode changes periodically in the extending direction thereof, and a length of one change period of the first electrode corresponds to a width of one pixel of the display panel.
A process for separating a high-boiling point aldehyde compound from a non-aqueous hydroformylation product solution, comprising the steps of: (a) contacting the non-aqueous hydroformylation product solution with an aqueous extraction solvent to form a biphasic mixture, wherein the aqueous extraction solvent comprises at least one polyalcohol, at least one primary alcohol, and water; and wherein the non-aqueous hydroformylation product solution comprises the high-boiling point aldehyde compound, a hydroformylation catalyst, and a non-aqueous hydroformylation solvent; and (b) separating the biphasic mixture of step (a) to obtain: (i) a non-aqueous hydroformylation solvent layer, comprising: the hydroformylation catalyst, and the non-aqueous hydroformylation solvent; and (ii) an aqueous extraction solvent layer, comprising: the high-boiling point aldehyde compound, and the aqueous extraction solvent, wherein the high-boiling point aldehyde compound has a boiling point of at least about 100 °C at atmospheric pressure. (a) contacting the non-aqueous hydroformylation product solution with an aqueous extraction solvent to form a biphasic mixture, wherein the aqueous extraction solvent comprises at least one polyalcohol, at least one primary alcohol, and water; and wherein the non-aqueous hydroformylation product solution comprises the high-boiling point aldehyde compound, a hydroformylation catalyst, and a non-aqueous hydroformylation solvent; and (b) separating the biphasic mixture of step (a) to obtain: (i) a non-aqueous hydroformylation solvent layer, comprising: the hydroformylation catalyst, and the non-aqueous hydroformylation solvent; and (ii) an aqueous extraction solvent layer, comprising: the high-boiling point aldehyde compound, and the aqueous extraction solvent, (i) a non-aqueous hydroformylation solvent layer, comprising: the hydroformylation catalyst, and the non-aqueous hydroformylation solvent; and (ii) an aqueous extraction solvent layer, comprising: the high-boiling point aldehyde compound, and the aqueous extraction solvent,
A data retransmission method, comprising: receiving (201, 301), by a base station, first acknowledgement sequence number, ACK-SN, information sent by a terminal, wherein the first ACK-SN information is comprised in a status report, and the first ACK-SN information carries a sequence number subsequent to the sequence number of the last data packet received by the terminal in sequence; recording (202, 302), by the base station, the first ACK-SN information and a quantity of times of receiving the first ACK-SN information; and retransmitting, by the base station, the first data packet to the terminal based on the first ACK-SN information when the quantity of times of receiving the first ACK-SN information accumulatively reaches a preset value, wherein the preset value is less than a maximum quantity of retransmissions, wherein the preset value is greater than one; allocating, by the base station, a target transmission resource to the status report when the quantity of times of receiving the ACK-SN information accumulatively reaches the preset value, wherein the target transmission resource supports transmission of the status report carrying the ACK-SN information and negative acknowledgement sequence number, NACK-SN, information; receiving, by the base station, the first ACK-SN information and the NACK-SN information that are sent by the terminal; and retransmitting, by the base station, the first data packet to the terminal based on the first ACK-SN information and the NACK-SN information. receiving (201, 301), by a base station, first acknowledgement sequence number, ACK-SN, information sent by a terminal, wherein the first ACK-SN information is comprised in a status report, and the first ACK-SN information carries a sequence number subsequent to the sequence number of the last data packet received by the terminal in sequence; recording (202, 302), by the base station, the first ACK-SN information and a quantity of times of receiving the first ACK-SN information; and retransmitting, by the base station, the first data packet to the terminal based on the first ACK-SN information when the quantity of times of receiving the first ACK-SN information accumulatively reaches a preset value, wherein the preset value is less than a maximum quantity of retransmissions, wherein the preset value is greater than one; allocating, by the base station, a target transmission resource to the status report when the quantity of times of receiving the ACK-SN information accumulatively reaches the preset value, wherein the target transmission resource supports transmission of the status report carrying the ACK-SN information and negative acknowledgement sequence number, NACK-SN, information; receiving, by the base station, the first ACK-SN information and the NACK-SN information that are sent by the terminal; and retransmitting, by the base station, the first data packet to the terminal based on the first ACK-SN information and the NACK-SN information.
Apparatus for making containers made of sheet material, said apparatus comprising: - a supply station for supplying a film, the film having at least one folded portion having 3 or more film flaps folded and superimposed with respect to each other, - a welding station configured to receive the film from the supply station, wherein the welding station comprises at least one welding head configured to contact the film and weld at least the folded portion of said film to form a container having a housing compartment, characterized by the fact that the welding head comprises at least one heater made of electrically conductive material having an electrical resistivity which, at least in a predetermined temperature range, decreases upon the increase of temperature of the electrically conductive material. - a supply station for supplying a film, the film having at least one folded portion having 3 or more film flaps folded and superimposed with respect to each other, - a welding station configured to receive the film from the supply station, wherein the welding station comprises at least one welding head configured to contact the film and weld at least the folded portion of said film to form a container having a housing compartment,
A flap folding unit, comprising at least one flap folding device (110a-b) having a disc-like member being configured to be arranged in a first position to urge passing front flaps of an associated cardboard case to fold, and in a second position to allow unfolded rear flaps of the associated cardboard case to pass the disc-like member wherein the disc-like member comprises a convex portion and a recessed portion, the disc-like member is connected to a link arm, and the link arm extends substantially parallel with a cardboard case feeder. such that when the cardboard advances in its feeding direction, the link arm is keeping the already folded flaps maintained folded. the disc-like member comprises a convex portion and a recessed portion, the disc-like member is connected to a link arm, and the link arm extends substantially parallel with a cardboard case feeder. such that when the cardboard advances in its feeding direction, the link arm is keeping the already folded flaps maintained folded.
A station (100; 501-2; 701-1; 1000) comprising: - a receiver (101; 1001) configured to receive a wireless signal sent via a wireless channel; - a transmitter; - a clear channel assessment, CCA, detector (103; 1003) configured to detect, based on a CCA threshold, if the wireless channel is busy; and - a controller (105; 1005) configured to increase the CCA threshold of the CCA detector (103; 1003) and set a transmit power of the transmitter at a low transmit power when the wireless channel is busy and the signal received via the wireless channel is not meant for the station (100; 501-2; 701-1; 1000); wherein the CCA detector (103; 1003) is configured to determine an interference value indicating a signal strength of interference in an environment of the station and to determine the wireless channel as busy, when the interference value exceeds the CCA threshold; and wherein the transmitter configured to adjust a modulation and coding rate for signals transmitted by the transmitter depending on the determined interference value. - a receiver (101; 1001) configured to receive a wireless signal sent via a wireless channel; - a transmitter; - a clear channel assessment, CCA, detector (103; 1003) configured to detect, based on a CCA threshold, if the wireless channel is busy; and - a controller (105; 1005) configured to increase the CCA threshold of the CCA detector (103; 1003) and set a transmit power of the transmitter at a low transmit power when the wireless channel is busy and the signal received via the wireless channel is not meant for the station (100; 501-2; 701-1; 1000); wherein the CCA detector (103; 1003) is configured to determine an interference value indicating a signal strength of interference in an environment of the station and to determine the wireless channel as busy, when the interference value exceeds the CCA threshold; and