Increase your
Profits using
Advanced Process Control
Technology
About 30 years ago scientists began
researching the learning process that babies go through as they
develop. They learned
that babies are born with a blank slate. As the infant develops it
collects sensory data which is used to make new brain connections
and create a neural network (NN). As the baby’s NN develops it
continues to improve and refine itself. Eventually the infant’s NN
becomes so refined that the child can start doing things on their
own with great precision without adult intervention.
Researchers then started trying to simulate the baby’s learning
process with computers.
They figured out how to program a computer so that it can
learn much the same way a baby does and create artificial
neural networks (ANN). Early in life a baby can only look
at a soccer ball. Within a few years the child develops skill
until they can maneuver a soccer ball with skill. Over
the past 10 years ANN technology has proven to be a powerful
tool for process optimization. ANN has found very
broad utility for optimizing processes from buying and selling stock
to improving the efficiency of sophisticated chemical manufacturing
processes.
An area that is relatively untapped when it
comes to the use of ANN is plastic fabrication
and plastic manufacture. There is a lot of expertise
that goes into optimizing the performance of plastic
fabrication and plastic manufacturing
operations. Whether you
are making plastics, extruding plastic sheet,
plastic films, and plastic foams
or injection molding sophisticated plastic
parts, there is a lot of tweaking that goes into optimizing
the process; e.g., minimizing off-grade material, minimizing cycle
time, minimizing the number of out of spec parts, maximizing
energy efficiency,
maximizing strength properties, etc. Our plastic
experts can help you install ANN into your
plastic fabrication and plastic manufacturing
process to maximize efficiency, minimize off-grade, and maximize
your profits. The money it cost you to implement PlasticOptimizer™ technology into
your processes will be regained within a few months of
operation.
To obtain a price quote and discuss how our
PlasticOptimizer™ technology
can help you optimize your plastic processes and maximize
your profits, please email us
today.
The following references showcase a few of the recent studies
that have been done to demonstrate how ANN can help optimize
plastic fabrication processes.
1) Modeling and optimization of a
plastic thermoforming process. Yang, Chyan; Hung,
Shiu-Wan.
Journal of Reinforced Plastics and Composites (2004), 23(1), 109-121.
Abstract:
Thermoforming
of plastic sheets has become an important process because of the
relative low cost and good formability of plastic. However, there are some
unsolved problems that greatly effect that efficacy of the
process. Non-uniform
thickness distribution caused by inappropriate processing conditions
is one of them.
Experimental data were used to develop a neural network model
for the thermoforming process via a supervised learning back
propagation neural network. The model provided significant
advantages in terms of improved product
quality.
2)
Optimization of injection molding process
parameters. S. Changyu, W. Lixia, L. Qian, C. Jingbo, ANTEC 2004
Proceedings, paper no. 112. Abstract: The
process conditions in injection molding have critical
influence on
the part quality; so finding the optimum
process parameters is the key to optimizing part quality.
Application
of artificial neural network technology is
an effective tool for the process optimization during
injection molding.
3) Advances
in Injection Molding Process/Quality Control Zhongbao
Chen and Lih-Sheng Turng. ANTEC 2004
Proceedings, paper no. 133. Abstract:
Injection
molding process/quality control is becoming more stringent due to
increasing litigations involving failure of plastic parts. This
paper reviews the state-of-the-art developments in injection molding
quality control. Real
online quality control without human intervention has not yet been
realized primarily due to lack of thorough understanding of the
relationship among machine, process, and quality variables. Neural network technology
offers the capability of precision control during injection molding.
4)
Artificial neural networks applied to polymer composites: a
review. Zhang, Z.; Friedrich,
K.
Composites Science and Technology (2003), 63(14), 2029-2044. Abstract:
Inspired
by the human nervous system, an artificial neural network (ANN)
approach is a fascinating math tool, which can be used to simulate a
wide variety of complex scientific and engineering problems. The objective of using ANNs
is also to achieve the optimum design of composite materials for
specific applications.
This paper reviews the principles of ANN development for
optimizing plastic composite materials. The properties that are
optimized include fatigue life, wear performance, response under
combined loading situations, and dynamic mechanical properties. The goal of this review is
to promote more consideration of using ANNs in the field of polymer
composite property prediction and
design.
5)
Multi-objective optimization scheme for quality control in injection
molding. Liang, Jui-Ming;
Wang,
Pei-Jen. Journal of
Injection Molding Technology
(2002),
6(4),
331-342. Abstract: Optimization of
process parameters for meeting the stringent quality requirements in
injection molding has been studied via utilization of neural network
modeling.
6)
Control of flow in resin transfer molding with real-time preform
permeability estimation. Nielsen, D. R.;
Pitchumani, R.
Polymer Composites
(2002),
23(6),
1087-1110. Abstract: Variability
in the preform structure in the mold are a challenge to achieving
reliable preform molding processes. Neural network modeling
offers an effective means of deriving real-time process control
decisions so as to steer the resin flow in a desired manner, which
ensures excellent perform quality.
The initial consultation is always
free. Email us today.
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Failure Labs today toll free at 1-877-PLA-FAIL
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