Optimization Of Seven Corrugated Box Structure

The rapider development of Chinese economy, the better people’s quality of life, in particularly the increasing demand for smart toilet, many businesses may store a lot of smart toilets. due to the rising cost of storage, most businesses save space in the heap of goods code process, stacking layers exceeds the specified value, resulting in damage to the goods, in order to solve this problem, we need to study the structure of the carton to improve the strength of the carton.Collect and summarize the common seven corrugated boxes, observe the different measurements of cartons and access to relevant information to get a different type of flute size carefully. Using PROE software will draw a different flute-shaped out, then save it in IGES format. Appling ANSYS analysis seven different flute corrugated board combination of static stress analysis to obtain different mechanical properties flute by finishing excel data compression capability to elect the strongest combination, providing a theoretical basis for the choice of flute. Propose to approach the main force corrugated reinforced column, the column on the main force adopt three different ways to improve the structure. Experimental buckling analysis use different mesh size and calculate their average as the final result to eliminate errors. At the same time seeking an extension buckling analysis modes of vibration transport corrugated boxes has significance.Contrast results find that AAA type, ACB type cardboard have maximum stress, ABE type, BBE have type minimum. BBE is the strongest compression type combination. Comparing three methods of reinforced and unreinforced found that outside buckling analysis results reinforced have the maximum, so the best way is outside reinforced.BBE is the strongest combination of corrugated board. Outer reinforced has the biggest ability to resist outside pressure. BBE-type combination of corrugated board and outer reinforced approach can increase the strength of the carton which can be applied to practical engineering.