Assembly planning attempts to arrange product assembly sequences on the basis of the input of product description, similar assembly plans and assembly constraints. Assembly planning is frequently viewed as a creative thinking process, which requires extensive assembly planning experience. Assembly product modeling with mechanical connection functions has increasingly focused on assembly sequence planning. When considering the connection functions, the relationships between assembled components can act as a foundation for assembly clustering. Despite the merits of assembly sequence planning in lieu of considering connection functions, previous investigations have focused primarily on product representation with the connector concept. However, to our knowledge, generation of the assembly sequence on the basis of the connector concept has not been previously discussed. In this study, we present a novel means of generating assembly sequences on the basis of the connector concept. The proposed method initially de®nes different types of connectors and representation schemes. Through the de®nition and representation scheme, an assembly product can be decomposed into a set of connector-based assembly elements. The connector-based assembly elements then serve as input for an assembly sequence generation algorithm, which is connector-based, to generate an assembly sequence. The ®nal output is a connector-based assembly sequence graph, resembling an assembly precedence diagram. In addition, this graph can act as the input for any line balance method when designing work elements for each assembly workstation.
[1]
R. Moss.
Designing by function.
,
1971,
Journal of clinical pathology.
[2]
Hirokazu Osaki,et al.
The Method of Analysis of Assembly Work Based on the Fastener Method
,
1980
.
[3]
Toshio Kojima,et al.
Study on Automatic Determination of Assembly Sequence
,
1983
.
[4]
Heedong Ko,et al.
Automatic assembling procedure generation from mating conditions
,
1987
.
[5]
Daniel E. Whitney,et al.
Concurrent Design of Products and Processes: A Strategy for the Next Generation in Manufacturing
,
1989
.
[6]
P. Dewhurst,et al.
Automatic Generation of Product Disassembly Sequences
,
1991
.
[7]
Andrew Kusiak,et al.
Concurrent Engineering: Automation, Tools, and Techniques
,
1992
.
[8]
Bartholomew O. Nnaji.
Theory of automatic robot assembly and programming
,
1992
.
[9]
Martti Mäntylä,et al.
Functional understanding of assembly modelling
,
1994,
Comput. Aided Des..
[10]
James H. Oliver,et al.
Automated path planning for integrated assembly design
,
1994,
Comput. Aided Des..
[11]
Dimitris Kiritsis,et al.
Computer-aided process planning
,
1996
.