mhurhangee/patent-ind-claim-en huggingface dataset:
A premixed combustion burner comprising: a mixing part that includes a first peripheral wall having a burner axis (A) as a center thereof, that includes a mixing region for mixing gas fuel and air at an inner periphery of the first peripheral wall , and that includes a plurality of air supply ports arranged in a circumferential direction (C1) and open in the first peripheral wall ; a nozzle part (11; 11A; 11B) that is on a leading end side of the mixing part , that includes a second peripheral wall (111; 111A; 111B) having the burner axis (A) as a center thereof, that includes a premixed gas passage continuous to the mixing region at an inner periphery of the second peripheral wall (111; 111A; 111B), and that includes a cooling passage (4; 4A; 4B) in the second peripheral wall (111; 111A: 111B); and a header part that is on a proximal end side of the mixing part , and that has therein a first header chamber , a fuel supply port configured to supply the gas fuel to the first header chamber , a second header chamber , and a fuel ejection port that allows communication between the second header chamber and the mixing region , wherein the first peripheral wall has therein an outward path that connects the first header chamber and an inlet of the cooling passage (4; 4A; 4B), and a return path that connects an outlet of the cooling passage (4; 4A; 4B) and the second header chamber . a mixing part that includes a first peripheral wall having a burner axis (A) as a center thereof, that includes a mixing region for mixing gas fuel and air at an inner periphery of the first peripheral wall , and that includes a plurality of air supply ports arranged in a circumferential direction (C1) and open in the first peripheral wall ; a nozzle part (11; 11A; 11B) that is on a leading end side of the mixing part , that includes a second peripheral wall (111; 111A; 111B) having the burner axis (A) as a center thereof, that includes a premixed gas passage continuous to the mixing region at an inner periphery of the second peripheral wall (111; 111A; 111B), and that includes a cooling passage (4; 4A; 4B) in the second peripheral wall (111; 111A: 111B); and a header part that is on a proximal end side of the mixing part , and that has therein a first header chamber , a fuel supply port configured to supply the gas fuel to the first header chamber , a second header chamber , and a fuel ejection port that allows communication between the second header chamber and the mixing region , wherein the first peripheral wall has therein an outward path that connects the first header chamber and an inlet of the cooling passage (4; 4A; 4B), and a return path that connects an outlet of the cooling passage (4; 4A; 4B) and the second header chamber .
A tissue monitoring system comprising (a) At least one organoid module comprising a plurality of organoid cartridges, wherein each organoid cartridge comprises a media inlet, a media outlet, and at least one wall compatible with an external detection device, wherein a plurality of the organoid cartridges each comprise a biological material comprising at least one human cell, wherein the cell is a human embryonic stem cell, a human adult stem cell, a human induced pluripotent stem cell, a cell derived from a human tissue, or a progenitor cell of a human tissue; (b) a mirror arrangement for simultaneous monitoring of any biological development of the biological material in each of at least two organoid cartridges; and (c) a detection device for observing the monitored biological development of the biological material in each of at least two organoid cartridges. (a) At least one organoid module comprising a plurality of organoid cartridges, wherein each organoid cartridge comprises a media inlet, a media outlet, and at least one wall compatible with an external detection device, wherein a plurality of the organoid cartridges each comprise a biological material comprising at least one human cell, wherein the cell is a human embryonic stem cell, a human adult stem cell, a human induced pluripotent stem cell, a cell derived from a human tissue, or a progenitor cell of a human tissue; (b) a mirror arrangement for simultaneous monitoring of any biological development of the biological material in each of at least two organoid cartridges; and (c) a detection device for observing the monitored biological development of the biological material in each of at least two organoid cartridges.
A film made from at least one polyethylene polymer comprising from 75.0 mol% to 100.0 mol% ethylene derived units and having: a density of from 0.910 g/cm 3 to 0.923 g/cm 3 , as measured according to the method in the description, a melt index (I 2.16 ) of from 0.1 g/10 min to 1.2 g/10 min, a melt index ratio (I 21.6 /I 2.16 ) of from 20 to 35, wherein the melt index (I 2.16 ) is measured according to ASTM D-1238-E at 190°C and the high load melt index (I 21.6 ) is measured according to ASTM D-1238, condition F at 190°C; and, a weight average molecular weight (M w ) of from 150,000 g/mol to 400,000 g/mol, as measured according to the method in the description; wherein the film has a dart drop impact strength (DIS) of ≥ 40g/μm as measured according to ASTM D1709 method A, and a flex crack resistance of ≤5 holes/10,000 cycles as measured according to the Gelbo flex test method as described in the description; and, wherein the film comprises two or more layers, wherein the two or more layers comprise at least one skin layer, a core layer, and optionally one or more intermediary layers; and, wherein at least one of the skin layer, the core layer, or optional intermediary layer comprises from 30 wt% to 100 wt% of the polyethylene polymer, based upon the total weight of the skin layer, the core layer, or optional intermediary layer; and, wherein at least one of the skin layer, the core layer, or optional intermediary layer, comprises a blend of the polyethylene polymer and at least one different polyethylene polymer, wherein the at least one different polyethylene polymer is a Ziegler-Natta linear low density polyethylene polymer. a density of from 0.910 g/cm 3 to 0.923 g/cm 3 , as measured according to the method in the description, a melt index (I 2.16 ) of from 0.1 g/10 min to 1.2 g/10 min, a melt index ratio (I 21.6 /I 2.16 ) of from 20 to 35, wherein the melt index (I 2.16 ) is measured according to ASTM D-1238-E at 190°C and the high load melt index (I 21.6 ) is measured according to ASTM D-1238, condition F at 190°C; and,
A method of cold treatment (CT) of refrigerated cargo during shipment of a refrigeration container , implemented by an active response controller having one or more processors and having memory storage, the memory storage comprising instructions that when executed by the one or more processors implement steps comprising: receiving, at the active response controller, a set point adjustment protocol including rules for modifying set points of a refrigeration controller of the refrigeration container, wherein conditions of the rules include temperature thresholds and temperature trend triggers, wherein temperature trend triggers are rates of temperature change; during a period of active response operation, receiving temperature signals from a plurality of temperature probes located in the refrigeration container; determining that one or more of the received temperature signals exceeds a temperature threshold of a rule defined by the set point adjustment protocol; determining that a temperature trend of the one or more of the received temperature signals meets a trend trigger of the rule; and responsively transmitting a set point change command of the rule to the refrigeration controller. receiving, at the active response controller, a set point adjustment protocol including rules for modifying set points of a refrigeration controller of the refrigeration container, wherein conditions of the rules include temperature thresholds and temperature trend triggers, wherein temperature trend triggers are rates of temperature change; during a period of active response operation, receiving temperature signals from a plurality of temperature probes located in the refrigeration container; determining that one or more of the received temperature signals exceeds a temperature threshold of a rule defined by the set point adjustment protocol; determining that a temperature trend of the one or more of the received temperature signals meets a trend trigger of the rule; and responsively transmitting a set point change command of the rule to the refrigeration controller.
A multi-passage valve for controlling the flow of coolant through different flow paths for temperature regulation of components inside a vehicle, the multi-passage valve comprising: a housing provided with four housing openings spaced by 90°, the housing having a cavity provided therein; at least one valve body disposed in the housing , the at least one valve body having a hollow spherical shape and being rotatable in the housing ; and at least one sealing element provided between the housing and the at least one valve body , wherein the at least one sealing element is integrally molded on at least one of the housing and the at least one valve body ; and wherein the at least one valve body is provided with two opposing valve body opening portions , the at least one valve body is disposed in the cavity , and the at least one valve body can rotate in the cavity , wherein when the at least one valve body rotates by a predetermined angle, the two valve body opening portions and two of the four housing openings cooperate with each other such that the two valve body opening portions selectively and at least partially open the two of the four housing openings so as to selectively connect or regulate different fluid passages , wherein the at least one sealing element is molded on the at least one valve body around the at least one valve body opening portion , and wherein the valve further comprises: at least one lifting structure for moving the at least one sealing element relative to the housing upward and downward to regulate the relative distance between the at least one sealing element and the housing , wherein when the at least one valve body rotates, the at least one sealing element at least partially leaves the housing .
Medicament delivery device comprising - a housing ; - an injection needle assembly configured to be moved in relation to the housing from an initial position to a penetration position and from the penetration position back to the initial position; - a penetration and withdrawal mechanism configured to control the movements of said injection needle assembly ; - an activation mechanism configured to interact with said penetration and withdrawal mechanism for initiating the movement of the injection needle assembly from the initial position to the penetration position; - a stop mechanism configured to interact with said penetration and withdrawal mechanism for initiating the movement of the injection needle assembly from the penetration position back to the initial position; characterized in that penetration and withdrawal mechanism comprises: - a driver comprising a rotator sleeve operably connected to said injection needle assembly and to a drive element , said drive element comprising a flexible, non-elastic, band wound around said rotator sleeve ; - a biased force element connected to said drive element ; - a switching element arranged between the rotator sleeve and the band , which switching element is releasibly attached to said rotator sleeve and arranged to alter the winding direction of said band around said rotator sleeve ; wherein the rotation of said rotator sleeve will cause a linear movement of said injection needle assembly ; wherein operation of said activation mechanism allows said biased force element to pull said band , causing a rotation of said rotator sleeve in one direction and slaves the injection needle assembly to said penetration position; and wherein operation of said stop mechanism releases said switching element so that the altered winding direction causes said rotator sleeve to be rotated in an opposite direction and slaves said injection needle assembly back to said initial position. - a housing ; - an injection needle assembly configured to be moved in relation to the housing from an initial position to a penetration position and from the penetration position back to the initial position; - a penetration and withdrawal mechanism configured to control the movements of said injection needle assembly ; - an activation mechanism configured to interact with said penetration and withdrawal mechanism for initiating the movement of the injection needle assembly from the initial position to the penetration position; - a stop mechanism configured to interact with said penetration and withdrawal mechanism for initiating the movement of the injection needle assembly from the penetration position back to the initial position; - a driver comprising a rotator sleeve operably connected to said injection needle assembly and to a drive element , said drive element comprising a flexible, non-elastic, band wound around said rotator sleeve ; - a biased force element connected to said drive element ; - a switching element arranged between the rotator sleeve and the band , which switching element is releasibly attached to said rotator sleeve and arranged to alter the winding direction of said band around said rotator sleeve ;
A weighing platform comprising a polymeric measuring plate and a measuring system, wherein the measuring plate is monolithic and formed integrally in its entire volume of a polymeric thermoplastic material or polymeric duroplastic material, thermosetting or chemically curing, wherein the measuring plate comprises a substantially flat active surface and a spatially shaped passive surface , and wherein the measuring system is located in areas of highest stress and is in the form of an optoelectronic measuring system or a beam measuring system .
A CPU, serving as a main CPU that manages a multi-CPU system, characterized in that the multi-CPU system comprises: a first Quick-Path Interconnect, QPI domain , a second QPI domain , a first node controller NC group , and a second NC group , the first NC group is connected to the first QPI domain and the second QPI domain , the second NC group is connected to the first QPI domain and the second QPI domain, each QPI domain comprises at least one CPU, the main CPU belongs to the first QPI domain or the second QPI domain , the main CPU is configured to: when an NC in the first NC group is to be removed, control all CPUs in the multi-CPU system that perform cross-domain access by using the first NC group , to switch, by modifying a route configuration, to perform cross-domain access by using the second NC group, and when a target NC is added to the first NC group, control at least one CPU that is in the first QPI domain and that performs cross-domain access by using the second NC group, to switch, by modifying a route configuration, to perform cross-domain access by using the target NC , wherein the target NC is connected to the first QPI domain . when an NC in the first NC group is to be removed, control all CPUs in the multi-CPU system that perform cross-domain access by using the first NC group , to switch, by modifying a route configuration, to perform cross-domain access by using the second NC group, and when a target NC is added to the first NC group, control at least one CPU that is in the first QPI domain and that performs cross-domain access by using the second NC group, to switch, by modifying a route configuration, to perform cross-domain access by using the target NC , wherein the target NC is connected to the first QPI domain .
A bioreactor system comprising: a vessel (100;1200) for housing biomaterials for processing, the vessel comprising a flexible material defining a chamber ; a mixing system positioned within the chamber, the mixing system comprising an agitator (181;1002;1102) for imparting motion and mixing to the contents of the vessel such that biomaterials contained within the chamber are mixed and gas bubble circulation is increased, the agitator comprising a base (302;410) affixed to the flexible material at a base section of the chamber, a shaft (200;402) moveably mounted in the base and extending from the base into the chamber and at least one mixing element mounted to the shaft, the shaft configured to be driven by a motor magnetically coupled to the shaft and external to a lower portion of the chamber; and a support structure (138;1022;1116) connected to the mixing system such that the shaft is moveable therein and configured to cooperate with an external structure to provide support for the shaft, wherein characterized in that the support structure comprises a hub (140;202) in which the shaft is positioned and moveable therein, a connector attached to the hub and configured to receive a rod , and a rod inserted into the connector, wherein the hub includes a circumferential surface of the hub, at least 3 connectors are positioned on the circumferential surface and equally spaced, a rod having a diameter inserted into each of the at least 3 connectors ; and the flexible material includes an orifice and tubing section connected to the orifice in which each rod is positioned such that one end of the tubing section is connected to the orifice and the other end of the tubing section is connected to one of the at least 3 connectors, the tubing section having a diameter suitable for receiving a rod having the rod's diameter and the connections of the tubing section to the orifice and to the one of the at least 3 connectors are capable of substantially preventing fluid leakage, wherein each of the connectors includes a rod aperture into which a rod is slid into position and a barb over which tubing is slid over. a vessel (100;1200) for housing biomaterials for processing, the vessel comprising a flexible material defining a chamber ; a mixing system positioned within the chamber, the mixing system comprising an agitator (181;1002;1102) for imparting motion and mixing to the contents of the vessel such that biomaterials contained within the chamber are mixed and gas bubble circulation is increased, the agitator comprising a base (302;410) affixed to the flexible material at a base section of the chamber, a shaft (200;402) moveably mounted in the base and extending from the base into the chamber and at least one mixing element mounted to the shaft, the shaft configured to be driven by a motor magnetically coupled to the shaft and external to a lower portion of the chamber; and a support structure (138;1022;1116) connected to the mixing system such that the shaft is moveable therein and configured to cooperate with an external structure to provide support for the shaft,
A watering pump being operably coupled to a water source and a water line to alternately couple the water source to and isolate the water source from the water line , the watering pump comprising: a pump sensor assembly configured to detect environmental and operational parameters; and a communication circuitry that includes an antenna for enabling the watering pump to communicate with a gateway , wherein the communication circuitry is configured to monitor and calculate the runtime of and the water usage by the watering pump . a pump sensor assembly configured to detect environmental and operational parameters; and a communication circuitry that includes an antenna for enabling the watering pump to communicate with a gateway , wherein the communication circuitry is configured to monitor and calculate the runtime of and the water usage by the watering pump .
An image inspection device for inspecting a target (w) using a captured image, the image inspection device comprising: a photographing portion for imaging the target (w), the photographing portion having a field of view; and an illumination portion for being disposed between the target (w) and the photographing portion and comprising a holder , wherein the illumination portion comprises: a surface light source ; and a plurality of sets , each set (41, 141, 241, 341, 441, or 541) comprising first to n-th optical members arranged along a light emitting surface of the surface light source , wherein n is an integer equal to or greater than 2, the first to n-th optical members are disposed to face the light emitting surface (35, 135, or 235), and transmit light emitted from the light emitting surface toward the target (w), and the first to n-th optical members are configured to emit light toward the target (w) with wavelengths and solid angles different from one another, the image inspection device being characterized in that the sets of the plurality of sets are repeatedly arranged in form of a matrix on the holder ; and the holder and the photographing portion are configured such that a size of the holder is substantially the same as the field of view of the photographing portion , and a size of the plurality of sets is set to be equal or smaller than a size of a region of the target (w) indicated by one pixel in the captured image of the target (w) from the photographing portion . a photographing portion for imaging the target (w), the photographing portion having a field of view; and an illumination portion for being disposed between the target (w) and the photographing portion and comprising a holder , wherein the illumination portion comprises: a surface light source ; and a plurality of sets , each set (41, 141, 241, 341, 441, or 541) comprising first to n-th optical members arranged along a light emitting surface of the surface light source , wherein a surface light source ; and a plurality of sets , each set (41, 141, 241, 341, 441, or 541) comprising first to n-th optical members arranged along a light emitting surface of the surface light source , wherein n is an integer equal to or greater than 2, the first to n-th optical members are disposed to face the light emitting surface (35, 135, or 235), and transmit light emitted from the light emitting surface toward the target (w), and the first to n-th optical members are configured to emit light toward the target (w) with wavelengths and solid angles different from one another, the image inspection device being characterized in that the sets of the plurality of sets are repeatedly arranged in form of a matrix on the holder ; and the holder and the photographing portion are configured such that a size of the holder is substantially the same as the field of view of the photographing portion , and a size of the plurality of sets is set to be equal or smaller than a size of a region of the target (w) indicated by one pixel in the captured image of the target (w) from the photographing portion .