3results about How to "The process is stable and efficient" patented technology

This utility model relates to the field of nonwoven fabric processing technology, and in particular to a continuous punching device for nonwoven fabric processing. It includes a worktable, with supports fixedly connected to the upper left and upper right sides of the worktable. An unwinding roller and a take-up roller are respectively installed in the upper part of the two supports. A guide adjustment and limiting structure is fixedly connected to the upper left side of the worktable. Several through-holes for punching are opened in the middle of the upper part of the worktable. This continuous punching device for nonwoven fabric processing achieves continuous conveying of nonwoven fabric through the unwinding and take-up rollers. Utilizing the guide adjustment and limiting structure, punching drive device, and tension roller, it precisely controls the movement and punching process of the nonwoven fabric, effectively solving problems such as easy fabric shifting and wrinkling, easy slippage during punching, and low punching accuracy in traditional punching devices. Overall, it improves punching efficiency and nonwoven fabric processing quality, and enhances the applicability and stability of the equipment.

The present invention relates to a nano-vesicle reactor and a method for producing the same. Specifically, the present invention provides a composition for producing a nano-vesicle reactor, characterized by comprising a first vesicle containing a first receptor on its surface and a second vesicle containing a second receptor on its surface, wherein the first receptor and the second receptor are bound with each other through a ligand system so that the first vesicle and the second vesicle are fused to form the nano-vesicle reactor ; and a method for producing the above nano-vesicle reactor. The nano-vesicle reactor of the present invention can be utilized in production of energy inside a cell through cellular enzymatic reaction, a drug delivered system, and a diagnostic system.

The present disclosure provides a conversion of a gaseous substrate with the use of a microorganism. In one aspect, the present disclosure provides a microbial gas-phase reaction system for converting a gaseous substrate with the use of a microorganism. This microbial gas-phase reaction system comprises at least one member selected from among a carrier having the microorganism immobilized thereon, a gas supply part for supplying the gaseous substrate to the gas phase of the microbial gas-phase reaction system, and a water supply system for supplying water to the carrier. In one aspect, the present disclosure provides a method for converting a gaseous substrate with the use of a microorganism. This method comprises a step for exposing a surface of a carrier, on which the microorganism is immobilized, to a gas phase containing the gaseous substrate.