344 results about "Manufacturing cell" patented technology

A fully automated, integrated, end-to-end synchronized and compact manufacturing system produces polymer or metal case ammunition. Manufacturing stations support case assembly, sealing (gluing/welding), final product inspection, cartridge packaging or binning, and loading. Station modularity facilitates rapid changeover to accommodate ammunition of differing calibers. Sensors and apparatus may be provided to place a manufacturing cell in a wait state until all components or materials are received in a preferred orientation for proper assembly. The system may join and use multipart cases, each including a lower portion with a head end attached thereto and at least one upper portion having a necked-down transition to the open top end. Elevator feeders, vibratory bowl feeders, and robotic pick-and-place feeders may be used to deliver components for assembly.

A computer assisted method is disclosed for making an optimized layout of a manufacturing cell to be used, for example, to locate, hold and process workpieces, such as in robotic welding of an assembly of stamped sheet metal parts. The items to be processed and employed in the cell are identified by physical structure and kinematic characteristics and given an initial location to start the process. Further movements of the parts toward attraction points and away from repelling points are evaluated on the computer by an optimization program to arrive at an optimized cell layout.

The invention relates to a method for manufacturing cell delivery particles, pharmaceutical component-particle dispersions, compositions comprising cell delivery particles and pharmaceutical compositions comprising pharmaceutical component-particle dispersions. The method comprises homogenization of mixtures comprising amphiphilic components and a block copolymer to form stable particles. The invention is also directed to cell delivery particles and pharmaceutical component-particle dispersions produced by the claimed methods and compositions comprising same. In certain embodiments, the cell delivery particles may further comprise co-lipids. The invention further relates to methods of generating an immune response, treating or preventing a disease or condition, or delivering a biologically active molecule to cells in vitro comprising administration of the pharmaceutical compositions described herein.

A molded body treating apparatus includes a support, at least one flat plate and a first movement mechanism. The support is configured to support a honeycomb molded body which has a first end portion and a second end portion in a longitudinal direction of the honeycomb molded body and which includes a plurality of cells each extending along the longitudinal direction from a first end at the first end portion to a second end at the second end portion. Either the first end or the second end of each of the plurality of cells is sealed with a plug material paste. The first movement mechanism is configured to move the at least one flat plate along the longitudinal direction to press the either one of the first and second end portions.

The present invention relates to configuring and wiring together cells in TF PV modules. According to one aspect, cells are fabricated on one plane on a top surface of a substrate, with wiring patterned on a parallel plane, and vias formed to provide connections between the cell plane and wiring plane. In one embodiment, the wiring plane is on the back surface of the substrate and vias are formed through the substrate. In another embodiment, the wiring plane is on the top surface of the substrate underneath the cell plane and an insulating layer, with the vias formed through the insulating layer. In another embodiment, the cell plane formed on the top surface includes superstrate cells that are illuminated through a transparent substrate, with an insulator between the cell plane and an upper wiring plane. According to another aspect, the heavy bus bar connections in the wiring plane can carry large currents and do not block light impinging on the cells. According to further aspects, the wiring plane enables use of parallel cell connections that provide immunity to shading, as described above. Moreover, these connections can be wired in a variety of methods, allowing use of series-parallel arrangements so that, for example, local regions could be parallel connected while larger regions series connected.

A system and method for remote manufacturing of medical devices are provided. The system can be installed at a facility (e.g., at a hospital or other medical facility), and includes a remote manufacturing unit (RMU) that allows for customized, rapid fabrication of medical devices at the medical facility using suitable manufacturing techniques such as three-dimensional (3D) printing, additive manufacturing, subtractive manufacturing, etc. The RMU can communicate with a computer system which presents a healthcare professional with a digital catalog of medical products, and allows the healthcare professional to select and customize a desired device to be manufactured at the facility.

Simulation systems and methods may enable medical training. A manufacturing unit may receive data from a configuration unit indicating identification and manufacturing parameters for an anatomy model. A data processing unit may receive data from the configuration unit identifying the anatomy model, and data from a calibration unit indicating a position and/or orientation of a position and orientation sensor relative to the anatomy model. The data processing unit may also receive data from the position and orientation sensor indicating a position and/or orientation of the anatomy model. The data processing unit may generate a virtual image using the data from the position and orientation sensor, the data from the calibration unit, and the data from the configuration unit. The data processing unit may render the virtual image to a display.

The present invention discloses a system of energy-efficient and constant-pressure parallel-coupled fluid-transport machines, which can flexibly and massively provide gas and water to every fabrication unit. The system of the present invention comprises: variable-frequency centrifugal fluid-transport machines, pressure gauges, power meters, flow meters, and controllers. The performance curves of the abovementioned system of parallel-coupled fluid-transport machines and the system impedance curves of the loads are analyzed theoretically and built in the controllers together with the equal-efficiency curves provided by the manufacturer. When the system is operating, the data detected by the pressure gauges, power meters, and flow meters are compared with the built-in data to obtain the optimal energy-efficient conditions as the operational criteria of the system of the present invention.

The present disclosure provides enhanced storage systems that facilitate efficient storage of, and access to, a variety of items and products. Exemplary systems according to the present disclosure include mechanism(s) that permit reliable and efficient repositioning of one or more shelves, thereby enhancing utilization and efficiencies associated therewith. Shelving systems according to the present disclosure facilitate synchronized vertical motion of shelving units, e.g., based on coordinated pulley/cable systems, and advantageously include spring designs that facilitate controlled vertical motion of shelving units, e.g., based on fluid movement and/or discharge from the spring design. Rotational motion of the shelves relative to a stationary rod may be provided. Shelving units may be readily repositioned at elbow or eye level, and repositioned at their respective initial positions in an efficient and advantageous manner. The shelving systems may be original manufacture units or may be designed for use in retrofitting existing shelving systems.

Disclosed is a unitized electrochemical cell sub-assembly having a first separator plate and a second separator plate that each has a first surface. A recess is located in at least one of the first surfaces to define a chamber adjacent the periphery of the plates when the plates face each other. A membrane electrode assembly (MEA) comprising an ion exchange membrane and a pair of gas diffusion layers is disposed on and between each of the first surfaces between the two plates when the plates face each other so that the peripheral edge of the ion exchange membrane is located within the chamber. Also located in the chamber is a non-conductive sealant polymer that seals and joins the first and second plates to each other, and that seals and joins the first and second plates to the edge of the ion exchange membrane. Also disclosed is a fabrication method for making the unitized electrochemical cell sub-assembly.

The invention provides processes for manufacturing cell-binding agent-cytotoxic agent conjugates of improved stability comprising performing the modification reaction at a high pH. The inventive processes comprise contacting a cell-binding agent with a bifunctional crosslinking reagent in a solution having a pH of 7.1 to 9 to covalently attach a linker to the cell-binding agent and thereby prepare a mixture comprising cell-binding agents having linkers bound thereto.

A multi-path valve arrangement in a beverage making unit by which, optionally, various beverages can be prepared. The multi-path valve arrangement includes a multi-path valve with a housing provided with a cold milk inlet, a cold water inlet, a valve outlet and an air opening. A valve body in the housing is suited to connect the cold milk inlet having an adjustable throttling with the valve outlet. The valve body is set by a step motor which is connected with a programmable control of the valve body position.

An integrated reconfigurable multi-stage manufacturing system and associated methods. The system may include a plurality of manufacturing cells, each cell associated with at least one stage of a manufacturing process. The plurality of cells may include a first cell comprising at least one flexible manufacturing station, a second cell comprising at least one reconfigurable manufacturing station, and a third cell comprising at least one reconfigurable inspection machine. The system may also include a plurality of loop conveyors and a plurality of cell gantries. Each loop conveyor may connect at least two neighboring cells and each cell gantry may transport parts from the cell associated with the cell gantry to at least one loop conveyor. In one embodiment, each cell may be hexagonal, and the manufacturing system may have a honeycomb structure.

The invention discloses a method for preparing solar energy level silicon crystals containing doped element, which is to place molten silicon containing the doped element into a crucible reactor and adopt a directional solidification method or a pulling method to prepare the silicon crystals. In the preparation process of the silicon crystals, protective gas is introduced into a crystal growing furnace and flows through the surface of the molten silicon, and is as follows: a) gas containing hydrogen atoms; or b) a mixture of the gas containing the hydrogen atoms and inert gas. The method obviously improves the minority-carrier lifetime of the silicon crystals by the functions of H on passivation, gettering and the like of impurities and defects in the silicon crystals, and improves the photoelectric conversion efficiency of subsequently manufactured cell slices. The method also adjusts the resistivity of silicon crystals doped with gallium and makes the resistivity of the silicon crystals more uniform in the crystal growing direction. Moreover, the method is simple in operation and easy in industrialized production, and can obviously improve the product quality.

The present disclosure provides enhanced storage systems that facilitate efficient storage of, and access to, a variety of items and products. Exemplary systems according to the present disclosure include mechanism(s) that permit reliable and efficient repositioning of one or more shelves, thereby enhancing utilization and efficiencies associated therewith. Shelving systems according to the present disclosure facilitate synchronized vertical motion of shelving units, e.g., based on coordinated pulley/cable systems, and advantageously include spring designs that facilitate controlled vertical motion of shelving units, e.g., based on fluid movement and/or discharge from the spring design. Shelves and/or shelving units may be readily repositioned at elbow or eye level, and repositioned at their respective initial positions in an efficient and advantageous manner. The shelving systems may be original manufacture units or may be designed for use in retrofitting existing shelving systems.

Disclosed are a method and an apparatus for manufacturing a radiation intensity bolus. The method comprises the steps of: (a) calculating, by a radiotherapy treatment planning unit, a received 3D radiation dose distribution, planning a bolus to be manufactured, and outputting radiation intensity modulation information; (b) receiving, by a bolus design unit, the radiation intensity modulation information, generating a conversion file for manufacturing bolus, and outputting information about a 3D structure of the bolus to be manufactured; (c) receiving, by a bolus manufacturing unit, the conversion file for manufacturing bolus, verifying a type, location, and size of the bolus to be manufactured, sending the verified data to a 3D printer, and manufacturing the bolus; and (d) obtaining, by an accuracy verification unit, information about a 3D structure of the manufactured bolus and evaluating manufacturing accuracy by comparing the information about the 3D structure of the manufactured bolus with the information about the planned bolus.

The invention relates to a realization method for a general type production and manufacturing unit control system. Different technical control processes of product production and manufacturing are decomposed into multiple independent production process computer input and output operation control units which are then substituted by one general virtual control device. The realization method comprises the following steps that one general virtual control device is established; a product technical process preset module is established; a production quality inspection preset module; a work plan setting module is established; and corresponding unit operation performed in a unit data acquisition controller according to a set sequence requirement is performed, stylized information exchange is performed, the related information is outputted to the next control unit and all the preset superimposed unit operation is completed so that the whole product production process is completed. Computer process control difficulty of manufacturing industry intermittence type and discrete type production is mainly solved by the method and the system so that system applicability and work efficiency are enhanced and product technical cost is reduced.