The invention discloses a non-full-length beam
steel bar material breaking optimization method based on a
hybrid optimization
algorithm, and aims to solve the problem that an existing non-full-length beam
steel bar material breaking method cannot balance the
steel bar utilization rate and the calculation efficiency. The method comprises the following steps: for required beam steel bars under the same beam steel bar
diameter, dividing the required beam steel bars into two groups according to the length of the beam steel bars; for required beam steel bars with the length larger than 12 m, a
cut excess material splicing method is adopted, an optimized
mathematical model of steel bar excess materials is established, and the number of used
raw material steel bars and the division length of the
raw material steel bars are calculated and determined through a
genetic algorithm; and for required beam steel bars with the length smaller than 12 m, directly
cutting from a single
raw material steel bar or combining and
processing the raw material steel bars with different specifications, listing all
cutting modes, calculating steel bar excess materials corresponding to the
cutting modes, and minimizing the total steel bar excess materials by the
integer linear programming model to obtain a steel bar broken material combination scheme.