A dry ice briquette machine with an air-blocking feature, including the briquette machine body, a discharge outlet on the machine body, and an air-blocking plate connected to the outer side of the machine body near the discharge outlet. The air-blocking plate covers the upper part of the discharge outlet and matches it. This novel design effectively prevents the gas from the discharge outlet of the briquette machine body from directly hitting the face, thus avoiding irritation or injury.
This utility model discloses an automatic topping device for a dry ice briquetting machine, including a base. The base has brackets fixedly connected at both ends by bolts. A crossbar is fixedly connected between the tops of the brackets by bolts. A telescopic cylinder is fixedly connected at the top of the crossbar. The output end of the telescopic cylinder extends through to the bottom of the crossbar where it is fixedly connected to a fixed plate. One side of the collection box is slidingly connected to a receiving plate. Through the coordinated action of the mold block, mold groove, sliding plate, adjustment plate, receiving plate, dry ice briquetting machine, baffle, slider, and sliding groove, the rapid topping and discharging of ice blocks is achieved, eliminating the need for manual operation to pick up ice blocks, saving time and effort, and providing convenience and speed. This significantly improves work efficiency. Additionally, through the coordinated action of the sliding plate, spring, and adjustment plate, the downward pressure on the mold block can be buffered, providing good shock absorption and protective effects, which facilitates the extension of the device's service life and ensures a more stable pressing and molding process.
The disclosed invention includes dry ice production equipment and method, a dry ice briquette machine factory, with steps: Step 1, liquid carbon dioxide enters through the liquid carbon dioxide inlet flange at the top of the finned heat exchanger from the reaction tower, where it exchanges heat with low-temperature carbon dioxide gas; the resulting exhaust gas is then discharged to the outside through the exhaust flange at the second pipe outlet of the finned heat exchanger; Step 2, the liquid carbon dioxide, after heat exchange, is further depressurized to atmospheric pressure and enters the dry ice storage tower through the liquid carbon dioxide outlet flange at the bottom of the pipe, branch, and solenoid valve to be converted into dry ice powder; Step 3, the dry ice powder falls by gravity into the outlet and is then compressed into blocks by the dry ice compressor. This process significantly improves the heat exchange efficiency, increases the conversion rate of dry ice, and ensures scientific control of exhaust gas emissions.
Dry Ice Briquetting Machine - Dry Ice Briquetting Machine - Pinliang Machinery, provided by Kunshan Pinliang Machinery Automation Equipment Co., Ltd. The Dry Ice Briquetting Machine - Dry Ice Briquetting Machine - Pinliang Machinery is a newly upgraded product released by Kunshan Pinliang Machinery Automation Equipment Co., Ltd. this year. The images above are for reference only. Please call the contact number on this page or the image to get in touch with contact person: Zhang Feng.
