High-precision integrated wallboard cutting machine

Abstract

The invention provides a high-precision integrated wallboard cutting machine. The machine comprises a support and a cutting mechanism. The support comprises a workbench plate. Limit battens are arranged on the upper side of the workbench plate. Limit bars are arranged on the limit battens correspondingly. The cutting mechanism comprises a motor, a first cutter and a second cutter. The motor drivesthe first cutter to rotate, a driving gear is arranged between the motor and the first cutter, the driving gear drives a driven gear to rotate, the driven gear drives the second cutter to rotate, andthe first cutter and the second cutter are located on the same plane. By means of the cutting machine, the precision of an integrated wallboard cutting fracture surface can be guaranteed, and the situation of uneven cutting of elastic layers such as internal foaming layers is avoided.

Description

technical field [0001] The invention relates to the technical field of integrated wallboard processing, in particular to a high-precision integrated wallboard cutting machine. Background technique [0002] With the rapid development of my country's construction industry, there is more and more demand for wall materials such as wall panels and wall bricks. Modern building wall structure materials require energy saving and environmental protection to ensure the sustainable development of the national economy. In this context, integrated wall panels came into being. One of the more commonly used integrated wall panels includes structures such as aluminum-manganese alloys, sound-insulating foam materials, and aluminum foil. In addition, there are multiple composite PVC decorative layers on the aluminum-manganese alloys. The aluminum-manganese alloy has high strength, and the polyurethane foam layer has a relatively large thickness and certain flexibility. [0003] For the inte...

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Problems solved by technology

[0003] For the integrated wallboard, dimensional errors are often encountered during on-site installation and cutting is required. The accuracy of the traditional hand-held cutting mechanism is difficult to meet the requirements; in addition, after cutting the aluminum-manganese alloy layer with an electric cutter, the internal hair The foam layer will be deformed under the action of the cutter, and even be pulled away from the aluminum-manganese alloy layer, which will cause the edge of the cut foam layer to be uneven and prone to jagged structures, which will affect the heat and sound insulation effect after assembly

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