BUSINESS INNOVATION VIA COLLABORATION
e-Manufacturing: Web-based Collaboration Systems for SMEs
Kwangyeol Ryu, Seokwoo Lee, Wonpyo Hong, Dongyoon Lee and Honzong Choi
e-Manufacturing Center, Korea Institute of Industrial Engineering, 7-47 Songdo-dong, Yeonsu-gu, Incheon, Korea
Keywords: e-Manufacturing, Collaboration, Manufacturing Innovation.
Abstract: Unpredictable challenges from global markets and customers make manufacturers difficult to produce
quality products satisfying cost and time constraints. To cope with competitive and dynamically changing
internal and external conditions, the manufacturing industry needs to be equipped with advanced
technologies including IT as well as substantial infrastructure. “e-Manufacturing” is referred to as a system
methodology enabling the integration of manufacturing operations and functional objectives of an enterprise
by using intelligent IT technologies such as Internet, tether-free communication methods including wireless
networking or web-based connections. The key factor of e-Manufacturing is collaboration. Hence, we have
developed four kinds of web-based collaboration systems, referred to as hub systems, while conducting e-
Manufacturing project funded by the Korea government. In this paper, therefore, the functions and
characteristics of each collaboration hub systems will be introduced. Furthermore a case study of business
innovation by applying collaboration systems for SMEs(small and medium sized enterprises). As a result of
applying collaboration systems to SMEs, they can get competitiveness because of effective web-based tools
for them, and reach business innovation which makes them survive in a global market.
1 INTRODUCTION
The manufacturing industry has been facing with
unpredictable challenges brought on mostly by
dynamically changing customer demands. To cope
with competitive external conditions, the
manufacturing enterprises of today should equip
advanced technologies based on substantial
infrastructure including network facilities, which
supports speedy communication and rapid data
transactions. Due to widespread availability of the
Internet over the past decade, business of the
enterprise has been evolving into e-business, which
innovates in business processes and systems such as
Enterprise Resource Planning(ERP), Supply Chain
Management(SCM), Product Lifecycle Management
(PLM), Customer Relationship Management(CRM),
and so forth. It has aided the acceleration of rapid
and smart production in manufacturing systems to
fulfill requirements of customer such as short
delivery, low cost, and quality products(Lee, 2003).
Although many companies and government have
tried to innovate in manufacturing industry, they
tend to invest funds only for facilitating partial
sections of a whole business such as product or
production technologies, manufacturing process, and
business services. Business innovation, however,
must occur in all dimensions – product, process, and
organization – to improve business performance and
competitiveness. Companies are seeking new ways
of providing additional value to customers and
gaining a competitive edge over their competitors.
As a representative way of gaining competitiveness,
they are focusing on the collaboration even with
their competitors. Today’s worldwide economic
conditions also call for them to modify their
business processes. As a consequence,
manufacturing enterprises(especially small and
medium sized companies, i.e., SMEs) are focusing
on on-line or off-line collaboration to get the power
of scale and to manage processes effectively.
When we compare a commitment of manpower
during the product lifecycle between global leading
companies and most of the Korean SMEs, focal
points are definitely different as depicted in Figure 1.
Most of Korean SMEs seem to ignore the
importance of the initial stage for making products
including product design, process planning, etc.,
thereby they often alter production schedules and
force subcontractors to rework changed parts. Hence,
they expend a significant amount of manpower later
198
Ryu K., Lee S., Hong W., Lee D. and Choi H. (2007).
BUSINESS INNOVATION VIA COLLABORATION - e-Manufacturing: Web-based Collaboration Systems for SMEs.
In Proceedings of the Ninth International Conference on Enterprise Information Systems - SAIC, pages 198-201
DOI: 10.5220/0002372301980201
Copyright
c
SciTePress
in dealing with inherent quality errors or claims
from customers. Such waste can be prevented by
making collaboration in the early stages as done by
leading companies. Experts in each process gather
and make lots of discussion with each other to
reduce errors possibly occurring during and after
production. By doing so, they do not encounter
many after-sales troubles even though they spent
much time and effort in early stages. In short,
collaboration in the early stages produces a big
difference in quality of final products.
Enterprises must capture, manage, and leverage
their intellectual assets to differentiate themselves.
The best way is to use the right application which
supports collaboration. Collaboration is the most
important factor to increase a company’s flexibility
and agility to respond swiftly to changing market
pressures and competitors. Collaboration is being
viewed as the next big wave after e-Commerce,
digital commerce and several other variants that
have emerged over the last decade [4-5]. According
to the outcomes of the e-Manufacturing project, as
illustrated from the following section, collaboration
systems can function as a good extranet as well as
intranet especially for SMEs who have insufficient
infrastructure or network facilities.
Pr o d u c t
Planning
Design Drawing Making
Molds
Reliabilit y Parts
Approval
Mas s
Production
Deliver
to Market
Korean SME
Leading Company
0
10
20
30
40
Manpower
Design Team
Product Planning Team
Product Development Team
Mold Subc ontractor s
Injection Company
Qualit y/Reliabilit y
Te a m
Purchasing
Qualit y Control
of Final Product s
Mass
Production
Post - produc tion,
Assembly Company
Qu a l i t y
Ga p
Majo r
Ac t o r s
La c k o f
planning skill &
collaborat ion
La c k o f
design skill
La c k o f
Te chnology of
subco ntract o rs
Fr e q u e n t
change s in
design
Inherent e rrors
in quality are
repeat ed
Collaboration
Figure 1: Comparison of product development lifecycle.
2 E-MANUFACTURING
e-Manufacturing can be referred to as a system
methodology enabling integration of manufacturing
operations and functional objectives of an enterprise
by using intelligent IT technologies such as Internet,
tether-free communication methods including
wireless networking or web-based connections(Ryu
et al., 2004). It is a novel concept or paradigm in
manufacturing areas used to meet the requirements
for the complete integration of all business
participants including suppliers, manufacturing
elements, and customers through the effective use of
web-enabled technologies.
e-Manufacturing does more than just connect the
Internet to the shop floor. It provides a fundamental
change in a enterprises’ strategic value proposition.
It is a collection of systems, processes, and
technologies supporting and enabling manufacturers
to collaborate with others. To effectively embody
collaboration, the following tools are developed;
Tools for data mining, transforming, and
transferring to manufacturing facilities via
web-enabled applications,
Intelligent methods and tools for monitoring,
predicting, and resolving undesirable events
such as deterioration, trend of performance
loss, machine faults or failures, etc.,
Tools for optimizing processes and operations
to improve system performance,
Synchronization tools for integrating systems
associated with e-Manufacturing such as MES
(Manufacturing Execution System), PLM
(Product Lifecycle Management), etc.,
Tools for satisfying customers by providing
qualified services including engineering
services, technical assistance, consulting, etc.,
Collaboration methods and applications
enabling companies to cooperate with others
amicably by supporting easy sharing of
data/information/knowledge.
e-Manufacturing project was launched as a pilot
program by both central and regional governments
to build up infrastructure to promote collaboration
and technology development among companies in
2004. The industrial section where the collaboration
system first applied was injection-mold. However, it
will be enlarged to other major industrial sections
including automobile, machinery, electronics, etc.
Furthermore, the application region of the project
will be spread out from the metropolitan area to
local areas as well as overseas countries. Note that
the number of SMEs who participated in the project
was 81 in 2005 and it becomes 210 in 2006. The
goal, model, and main characteristics of the e-
Manufacturing project can be summarized as
illustrated in Table 1.
Table 1: Outline of the e-Manufacturing project.
Description
Goal
To increase industrial competitiveness
and added value via collaboration
Model
Business innovation model including both
on-line and off-line collaboration
Characteristics
The project develops collaboration
systems via cooperation between
government and industrial entities
BUSINESS INNOVATION VIA COLLABORATION - e-Manufacturing: Web-based Collaboration Systems for SMEs
199
2.1 Collaboration Systems
The collaboration systems have been independently
implemented (but are now being integrated)
according to their specific objectives. As illustrated
in Figure 3, we have developed Design_Hub,
Production_Hub, Blow_Hub, and Engineering_Hub
from 2004 to 2005, and we are now building up a
new one referred to as Automold_Hub. The
Design_Hub was first developed among 5 systems to
support collaborative design of molds by providing
useful tools including CAD conference, 3D drawing
visualizer, collaborative project manager, etc. While
developing Design_Hub, we started to develop
Blow_Hub which is specialized one according to the
product type. That is to say, blow-product can be
produced when two types of molds are equipped
with (i.e., parison mold and blow mold). At the same
time, another collaboration system, namely
Production_Hub was developed to support
collaboration among small companies who have
different production skills including machining with
CNC, discharge of electricity, try-out, CAM,
assembly, etc. In the mean time, for mold companies
involved in the e-Manufacturing project, the use of
three collaboration systems often got them into
trouble because of the inveterate inferiority in the
quality of products, parts, modules, and molds. To
support them by providing engineering technique
and knowledge, Engineering_Hub was newly
developed in 2005. By utilizing Engineering_Hub,
mold companies receive benefits from helpful
information or service provided by engineering
experts when faced with any intricate problem or
need to consult engineering knowledge such as CAE
(Computer Aided Engineering) analysis and 3D
inspection, etc. Figure 3 illustrates functional areas
and topology of aforementioned collaboration
systems configured from the process point of view.
All functions of the collaboration systems are
provided as a type of ASP (application service
provider) so that users can use them at anytime and
everywhere. Functions are summarized as follows;
Design_Hub
Managing collaboration project information and
history of injection molds
Managing standard work templates and
distributing drawings and documents
Online conference with 2D/3D CAD drawings
Searching project/data information according to
users’ permission to access
Blow_Hub
Managing collaboration project information and
history of blow molds
Managing standard business templates
Providing part library supporting parametric
design of parison and blow molds
Same functions supported by the Design_Hub
Production_Hub(Figure 3)
Planning and scheduling including outside
orders by simulation(with delivery or cost)
Distributing specification of parts or modules to
the cooperating companies
Monitoring production progress of cooperating
companies, and reporting it to customers
through SMS (short message service)
Providing online CAE, inspection services
Supporting the calculation of production costs
Expansion
of covering
Processes
(2006)
Design_Hub
Technology
Collaboration
Mold Design & Production Extrusion / Mass ProductionProduct Design
Inverse
Design
Design
Mock-up
CAS
Conferencing
Photo
Clinic
Automold_Hub
(2006 brand-new)
Production_Hub
CAM
Standard
Machining
Discharge
Electricity
Core
Machining
Precise
Machining
Assembly
Maintenance
Concept
Design
Concept
Design
Blow_Hub
Trouble
Shooting
Trial Shoot
Blowing
Parison-mold
Design
Blow-mold
Design
Assembly &
Inspection
Engineering_Hub
CAE Analysis
3D
Inspection
Trial Shoot
Quality
Approval
Novel
Technology
Defection
Consulting
Consulting/
Experts
Design
Collaboration
Collaboration with
Drawings and Technology
Styling
Styling
Part
Design
Part
Design
Design
Review
Design
Review
Pilot
Product
Pilot
Product
Mold
Design
Mold
Design
Production
of Mold
Production
of Mold
Assembly
& Inspection
Assembly
& Inspection
Trial
Shoot
Trial
Shoot
Trouble
Shooting
Trouble
Shooting
Extrusion
Extrusion
Conceptual Product Design
specialized hub
according to
the product type
Figure 2: Functional area and topology of each collaboration systems.
ICEIS 2007 - International Conference on Enterprise Information Systems
200
A System connecting Technical Collaboration Hub
Connection
to other
Hub Systems
Collaboration
w/ Drawings/
Visualization
On-line
Conference
w/ Drawings
Pro/ E MS- Of f iceCATIA
System
Interface
Supporting
CAM
in the field
Production
Scheduling
System
Process
Mgnt.
System
Visualization
UG
Mold Design
Standardization
Web- based Collaboration Hub System (
Production_Hub
)
Security Mgnt.
Progress
Monitoring
Quality Mgnt.
(Self-inspection)
Company/User
Mgnt.
Process Mgnt.Process Template
Getting Orders
Design Collaboration Group
Pilot Product
Mold Design
Part Design
Product Design
Collaborative
Mold Production
Factory 1
(CAM)
Factory 2
(NC proc.)
Factory 3
(electric pro.)
Factory 4
(EDM proc.)
Factory 5
(Assembly)
Factory n
(etc.)
Collaboration
DB
Production
Hub DB
Process
History
Figure 3: A system model for Production_Hub.
Engineering_Hub
Online CAD/CAE conference with customers
Managing projects and history of eng. services
Supporting connection between experts and
customers by organizing communities
CAI (Computer Aided Inspection) tools for
verifying CAD drawings by comparing them
with skin data points inspected together
Automold_Hub
Managing three types of collaboration projects
including styling, inverse design, and parts
development
Providing collaboration tools such as Photo
Clinic (online voting tools/AHP), on-line CAS
(Computer Aided Styling) conference, CAI, etc.
Supporting web-based tools for making design
mock-up of automobile and sharing information
with customers
2.2 Case Study of Production_Hub
As an illustrative application, a virtual company,
referred to as “Moldzone”, accomplished business
innovation by applying Production_Hub. The
consortium utilizing Production_Hub consists of 20
mold design/production companies in 2005. Most of
them were regarded as poor and small-sized
companies before using the collaboration system.
Because of their structural limitation, they found it
difficult to survive by getting orders requesting them
to make a single part/mold, while being responsible
for all production costs (e.g., labor cost, electricity,
water, etc.). Furthermore, external market conditions
push them lower the price of molds because there
are so many companies in China, who can do the
same job at lower cost.
In the meantime, they apply Production_Hub to
obtain an effective and efficient way to collaborate
with each other. They use the system as the intranet
to manage all data and information of each company.
They also use it as the extranet to collaborate with
each other. As a consequence, 9 companies reached
the consensus that they should migrate at the same
place in order to reduce indirect costs by sharing
expenses, thereby allowing them to be equipped
with competitive power. They redefined the roles,
processes, and responsibilities of each company
according to their ability to perform in order to use a
web-based collaboration system, Production_Hub .
After applying Production_Hub, their business
model has been changed from product based model
to relation based one.
They are now getting turnkey-typed orders that
request multiple molds at once mostly from overseas
companies. They have increased mold quality but
reduced delivery time and cost. Statistically
speaking, they have achieved a 44.2% increase in
production quantity, 78.7% increase in revenue, and
a 192% increase in their profit. As well, delivery
time has been reduced from 90 days to 60 days (33%
decrease). Currently, they are operating Moldzone II
in order to enlarge their items to produce (mostly
big-sized molds for making automobile parts).
3 CONCLUSIONS
The e-Manufacturing project is designed to build up
infrastructure as a part of its efforts to promote
collaboration and technological development. It is
referred to as a scheme designed to promote
informatization of the manufacturing sector by
innovating and integrating new product development,
procurement, production, logistics, after-sales and
other manufacturing processes based on Korea’s
strong IT infrastructure.
It is our strong belief that developing and
providing collaboration infrastructure to
manufacturing companies is the best strategy for the
innovation in manufacturing industry. By applying
IT and web-based technology into the conventional
manufacturing industry, manufacturing companies
can achieve competitiveness and manufacturing
innovation as well.
REFERENCES
Lee, J., 2003. e-Manufacturing – fundamental, tools, and
transformation, Robotics and Computer Integrated
Manufacturing, 19: 501-507.
Ryu, K., Choi, H., Lee, S., 2004. Framework of e-
Collaborative Engineering Services for Mold
Companies in Korea, IMS Int. Forum, Cernobbio,
Italy, 17 May – 19 May: 1128-1137.
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