35results about How to "Without lowering productivity" patented technology

In a method and apparatus for charging a gas into a gas compartment portion (6) of a bag (1), after a pre-heating step which is performed in stop position (IV) so that the gas compartment portion of the bag is heated by a heated gas-blowing nozzle (27), a preliminary gas injection step for injecting gas into the gas compartment portion is performed by a gas blowing nozzle (28) and a receiving member (29) in stop position (V). Then, a gas filling step is carried out in stop position (VI) by gas injection nozzles (23, 24), and the incision (9) in the gas compartment portion is sealed in stop position (VII). In the following pre-heating step, the front and rear film sheets (7, 8) of the gas compartment portion are softened, and in the preliminary gas injection step, the film sheets are separated and their adhesion is eliminated.

A method is provided for using a film formation apparatus including a process container having an inner surface, which contains as a main component a material selected from the group consisting of quartz and silicon carbide. The method includes performing a film formation process to form a silicon nitride film on a product target substrate inside the process container, and then, unloading the product target substrate from the process container. Thereafter, the method includes supplying an oxidizing gas into the process container with no product target substrate accommodated therein, thereby performing an oxidation process to change by-product films deposited on the inner surface of the process container into a composition richer in oxygen than nitrogen, at a part of the by-product films from a surface thereof to a predetermined depth.

In a manufacturing apparatus of printed wiring board an aperture of a nozzle pipe located in a central position is larger than that at both sides, or the aperture of the piping to the nozzle pipe in the central position is larger than that of the piping at both sides. The mutual interval is narrower with the central nozzle pipes. The interval of the individual nozzle pipes is variable, and is also variable in the vertical direction. A pressure-proof flexible tube is provided between each nozzle pipe and the pump, and the interval of the individual nozzle pipes is variable, and is also variable in the vertical direction. Further, the spray pressure, oscillating angle, and oscillating speed can be set individually in each nozzle pipe, and such setting can be automated.

A machine controller intercommunicates with, and issues machining program commands to, a plurality of peripherals. The controller receives work status information on the peripherals, calculates the total power consumption by the plurality of peripherals based on the received information, and decides the work start timing for the peripherals such that the total does not reach a preset upper limit.

Provided is a mutant polyhydroxyalkanoate synthetase having an amino acid sequence which has 85% or more sequence identity with the amino acid sequence of SEQ ID NO: 1 and which contains a mutation of substitution of at least one of the amino acids at the 27th to 33rd, 39th, 56th, 106th, 129th, 144th, 165th, 170th and 172nd to 187th positions from the N-terminus of the amino acid sequence of SEQ ID NO: 1 with another amino acid.

A substrate processing method includes a first process (step S12 to step S16) of forming a first resist pattern by exposing a substrate having thereon a first resist film to lights, developing the exposed substrate and cleaning the developed substrate; and a second process (step S17 to step S20) of forming a second resist pattern by forming a second resist film on the substrate having thereon the first resist pattern, exposing the substrate having thereon the second resist film to lights, and developing the exposed substrate. A first processing condition is determined based on first data showing a relationship between a first processing condition under which a cleaning process is performed on the substrate in the first process (step S16) and a line width of the second resist pattern, and the first process (step S16) is performed on the substrate under the determined first processing condition.

An image data output unit including an output-side processing section for performing a plurality of processing operations on image data, and an imaging unit including an imaging-side processing section for performing a given processing operation on image data outputted from the image data output unit and an imaging operation section for performing an imaging operation based on the image data outputted from the imaging-side processing section are provided. An amount of data to be transferred per unit time of processed image data that will result when the processing operations are performed on the image data at the output-side processing section is compared with a transferable amount of data transmission per unit time between the image data output unit and the imaging unit, and each of the processing operations is allocated to the output-side processing section or the imaging-side processing section based on the result of the comparison.

A slidable rubber material that has an amino-modified interfacial layer that does not affect the compression set. Although the slidable rubber material includes a rubber component such as a butyl rubber or halogenated butyl rubber etc. having the low-compression set, which contains a vulcanization agent such as a nitrogen/sulfur compound or a vulcanizing auxiliary agent, the rubber part is coated with a silicone rubber layer. The slidable rubber material exhibits a slidability and resists the detachment or elution of fine particles from the coating layer. A rubber component and a vulcanization agent; an interfacial modification layer that coats the rubber part and an amino-modified silicone compound is incorporated with surface molecules of the rubber part; and a layer that coats the interfacial modification and contains solid fine particles, an addition-type or condensation-type silicone rubber in which the particles are dispersed, and a curing catalyst for silicone rubber.