An ice maker with a serpentine refrigeration coil system

Abstract

The invention discloses an ice maker with a serpentine refrigeration coil system, which includes an ice maker, wherein an evaporator pressing plate is arranged under the ice maker, and the evaporator pressing plate is connected with a side wall of the ice maker An installation space is formed, and a serpentine coil is arranged in the installation space. The serpentine coil includes a first straight pipe and a second straight pipe, and the first straight pipe and the second straight pipe are connected through a curved pipe. The connection of the curved pipe is an arc connection with a central angle of 90°-100°; the connection between the second straight pipe and the curved pipe is an arc connection with a central angle of 40°-60°; the first straight pipe and the curved pipe An abutment surface is formed on the same plane as the second straight pipe, and the abutment surface is tightly abutted on the corresponding side wall through the heat-conducting silica gel. A serpentine coil is attached to the back of the ice maker, and the ice maker and the serpentine coil are fixed with heat-conducting silica gel to form an integrated structure, which increases the cooling capacity required by the ice maker. Under the premise that the original refrigeration system remains unchanged, the ice production capacity of ice production can be increased by 20%.

Description

technical field [0001] The present invention relates to an ice maker with a serpentine refrigeration coil system. Background technique [0002] The ice machine is a device that uses water as a carrier to produce ice after passing through a certain device in the electrified state. According to the principle of the evaporator and the different production methods, the shape of the ice cubes generated is also different. Generally, according to the shape of the ice, ice machines are divided into granular ice machines, flake ice machines, plate ice machines, tube ice machines, shell ice machines, etc. . However, the ice machine used for ships is generally small in size, and the temperature and humidity in the cabin are high. In addition, the ice machine itself is small in size, and the heat conduction efficiency of air is low, so that the heat generated by the ice machine in the ice process is poor. It cannot be dissipated as soon as possible, resulting in the timely increase of...

AI Technical Summary

Problems solved by technology

However, the ice machine used for ships is generally small in size, and the temperature and humidity in the cabin are high. In addition, the ice machine itself is small in size, and the heat conduction efficiency of air is low, so that the heat generated by the ice machine in the ice process is poor. It cannot be dissipated as soon as possible, resulting in the timely increase of the refrigeration system, and the temperature inside the ice maker cannot be reduced rapidly, and the ice production capacity of the small ice maker cannot be increased.

[0003] In addition, due to the bumpy transportation environment of the traditional marine ice machine, accidental bumps and damages often occur when the door is opened.

Moreover, when the product is not in use for a long time, the closed door is likely to cause bacteria to grow on the ice maker and the door seal due to the special humid and airtight environment, which will affect the quality of ice making and make the produced ice cubes unsanitary. Assure

And the door lock in the prior art also does not have the function of adjusting the distance between the door body and the cabinet body, which brings a lot of inconvenience to the user

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