Cleaner
Production Internship Program:
a unique strategy to stimulate RD&E
projects in Thailand
Chantana
Yuvaniyama*, Thumrongrut
Mungcharoen, Peeraporn Palapleevalya
and
Yuwanan Santitaweeroek
National
Science and Technology Development Agency
73/1
Rama VI Rd, Rajdhevee, Bangkok 10400, Thailand
chantana@nstda.or.th
The
Cleaner Production Internship Program (CPIP) has received great attention from
both public and private organizations in Thailand since its first launch in
1997. The National Science and
Technology Development Agency (NSTDA) became the major organizer of the CPIP in
1998. The program has given
impressive results for the development of Cleaner Production (CP)-skilled people
in academia and industries.
Furthermore, it has created linkages among academic institutions, NSTDA,
and industries for future co-operations in research, development, and
engineering (RD&E) in CP. The
1998 CPIP report was presented at the 2nd Asia Pacific CP Roundtable
last year.
This
article describes an improved strategy of the CPIP in 1999, the 2nd
year of the CPIP organized and supported by NSTDA, that led to the success of
both human resource development and RD&E projects in CP. The key factors of this new strategy
consist of:
·
Clear
program guidelines
enhanced the CPIP participants’
understanding of roles and the program commitments.
·
Teamwork-oriented
scheme
strengthened relationships among three groups of participants –interns, mentors,
and industries– leading to fruitful results.
·
Careful
academy-industry matching
emphasized on the factors of expertise, interests, and industrial
problems.
·
Concise
CP training curriculum
concentrated on the CP assessment and applications.
The
outcomes of the 1999 CPIP are remarkable particularly in the co-operative
RD&E in CP among the three parties.
The program generated four RD&E projects and other four concept
papers, which respond directly to the needs of Thai industries. In addition, it produced 35 CP-competent
people from five academic institutions and eight industries, most of which are
still considerably active and proficient in the field of CP. Moreover, more than thirty CP options
proposed to the industries were estimated to save US$115,000 yearly besides
considerable environmental and health benefits. Most of these options required low
investment and had a payback period of within one year.
Cleaner
Production, Internship Program, Thailand, Research and Development, Industry and
university cooperation
Most
Thai industries are small or medium enterprises with limited resources to invest
on technology transfer. Although
promotion of Cleaner Production (CP) in Thailand has raised some awareness from
various industries, without proper guidance and risk assessment, they are
usually reluctant to implement it.
To successfully promote the CP implementation in Thai industries, one
must focus on many factors and provide continuous supports for its
sustainability. The most important
issue among these is local capacity building in relevant technical areas to
reduce barriers arisen from cost and knowledge gap in technology transfer and
ultimately to develop local appropriate technology. This paper describes a proven strategy
of pooling and strengthening resources from local academia and linking them with
industrial needs in order to encourage long-term CP implementation and stimulate
its research, development, and engineering (RD&E) in
Thailand.
Cleaner
production internship Program (CPIP)
The
CP Internship Program (CPIP) was first introduced in November 1996 through the
International Pollution Prevention Partnership (IP3) project initiated by a
grant from United States-Asia Environmental Partnership Program (US-AEP). IP3 is a partnership between the
University of New Hampshire (UNH), the NH Pollution Prevention Partnership and
several universities, industries and agencies in Thailand including the National
Science and Technology Development Agency (NSTDA). It started an internship program in 1997
to promote CP concepts and implementations. The program trained forty students in CP
principles and applications and raised awareness among Thai academia and
industries.
Following
the successful launch of the 1997 program, NSTDA became the major organizer of
the 1998 CPIP. The program was
designed to cover more industrial sectors and to emphasize co-operative CP
RD&E between academia and industries.
It has given impressive results for the development of more than ninety
CP-skilled people in academia and industries. Furthermore,
it has created linkages among academic institutions, NSTDA, and industries for
future co-operations in CP RD&E.
The 1998 CPIP paper was presented at the 2nd Asia Pacific CP
Roundtable in Australia [1].
The
1999 CPIP, the 2nd year of the CPIP organized and supported by NSTDA, was
further developed from the 1998 model but emphasized more on generation of
applicable RD&E projects in CP besides human resource
development.
The
1999 CPIP
The
1999 CPIP comprised many activities similar to the 1998 program. It still consisted of two major
activities i.e. a CP training and a CP internship. The program activities can be summarized
in Table 1. However, there were
some improvements leading to the success of creating RD&E projects as well
as human resource development.
These can be described as the following key
factors:
·
Clear
program guidelines
enhanced the CPIP participants’
understanding of roles and the program commitments. The guidelines also included some useful
instructions for writing required reports such as CP internship project
proposal, and relevant examples, which facilitated the interns and their mentors
to produce quality reports in short time.
These guidelines were distributed as a handbook [2] to every participant prior to the internship
period.
·
Teamwork-oriented
scheme
strengthened relationships among three groups of participants –interns, mentors,
and industries– leading to fruitful results. Since CP involves multi-disciplinary
areas and functions especially in a work place practice, teamwork becomes one of
the most important factors for success.
It was therefore emphasized in the 1999 CPIP in many ways. For examples, several meetings were
organized for all of the mentors and factory coordinators in order to discuss
and exchange ideas for solving technical problems together. Plant visits to participated factories
were added to the program. Each
visit was arranged to include a group of mentors, instead of just the one who
was responsible for that factory.
The group was voluntarily formed by teaming of invited mentors with same
interests but different expertise.
This kind of teamwork resulted in a pool of knowledge and strengthened
relationships among mentors from different institutions as well as among mentors
and factory coordinators.
·
Careful
academy-industry matching
emphasized on the factors of expertise, interests, and industrial problems. Eight factories were recruited through
program advertisement and by voluntarily applications. Prospective mentors were carefully
identified afterwards by considering their expertise that fit problems of the
factories, their interest for RD&E projects, and their commitment to the
program. The mentors were then
asked to find their own students to promote good relationship between mentors
and their interns. In addition, a
meeting between these groups of participants was organized prior to the
internship period to ensure appropriate matching and their satisfaction in
working together.
·
Concise
CP training curriculum
concentrated on the CP assessment and applications. The details of the curriculum are
described below.
The
Program Participants
Participants
in the program could be classified into three groups:
·
Interns
– Totally 19 junior and senior undergraduate students majoring in science or
engineering.
·
Intern’s
mentors
– Eight researchers from universities or academic institutions interested or
involved in RD&E projects in CP.
·
Factory
coordinators
– Eight industrial representatives from production departments of participating
companies were in charge of coordinating with interns and their mentors during
the internship period. The
companies located in Bangkok and nearby provinces are small and medium factories
from five industrial sectors– food, electroplating, textile, plastic, and
household products.
A
list of participating academic institutions is shown in Table
2.
The
Intensive Training on CP Audit
A
comprehensive three-and-a-half-day training session [3] was organized for only
the program participants unlike the 1998 program that was opened for other
interested students. This change
allowed closer interactions between speakers and participants. The period was also shorter than the
1998 training to enhance full participation of the mentors and the factory
coordinators. The training
curriculum concentrated on the CP assessment and applications and covered the
following important topics:
-
Overview
of Environmental Management System and CP Concept
1.5
hr.
-
CP
Audit
2.5
hr.
-
Workshop
#1: Process Study & Material Balance
1.5
hr.
-
CP
Audit and Feasibility Study
1
hr.
-
Workshop
#2: Finding CP options
1
hr.
-
CP
Implementation and Workshop #3
1
hr.
-
Case
Study: CP Experience of Thai Pure Drinks Ltd.
1
hr.
-
Energy
Audit: Thermal and Electrical Energy Audit
3
hr.
-
CP
Information and Resources
1
hr.
-
Case
Study: Mentor's Experience in the 1998 Internship Program
1
hr.
-
Case
Study: Interns' Experience in the 1998 Internship Program
1
hr.
-
Summary
of program-guidelines for the 1999 Internship Program
1
hr.
All
of the training sessions except the topic of “Searching CP Information” were
conducted in Thai by invited speakers from academia, government and
non-government institutions, as well as industries. This eliminated the language barrier of
some students. The training not
only enabled the participants to have a better understanding of CP and its
implementation, but also helped them get acquainted to one another and work
together as team players. Furthermore, the experiences of
the previous-year participants as well as the clarification of the 1999 program
guidelines provided a clear picture of how the program and the whole process
would proceed for everyone.
Following
the CP training described above, the interns were placed in a group of two or
three at each participating factory.
These interns helped the industries in implementing the CP plans under
supervision of their assigned mentors and factory coordinators. During the internship period, each of
the mentors was assigned to closely supervise, in cooperation with the factory
coordinator, the interns at only one factory instead of two as implemented in
the previous year. This change
allowed the mentors to maximize their time for optimal results at the assigned
factory.
The 1999
CP internship period which lasted for about eight weeks in the Summer consisted
of three phases:
·
Internship
phase
1: Interns conducted CP
pre-assessment to identify CP project proposals, and prepared for
presentations.
·
Internship
phase 2:
CP assessment began, including data collection and analysis. Plant visits by groups of mentors were
arranged during this phase with one formal visit per
factory.
·
Internship
phase 3:
Interns concluded their work and prepared their final reports and presentations,
while their mentors prepared RD&E concept papers and
presentations.
The
outcomes of the 1999 CPIP were remarkable particularly in the co-operative
RD&E in CP among the three parties.
The program generated four RD&E projects and other four concept
papers, which responded directly to the needs of Thai industries. These CP RD&E projects were funded
by NSTDA and undertaken or led by the teams of mentors with in-kind cooperation
from the industries participating in the CPIP. They were small or medium projects with
1-2 year duration and a budget of not more than 500,000 Baht (~US$ 12,500) each
according to criteria in a handbook entitled “Guidelines for Writing RD&E
Projects on Cleaner Production for NSTDA Funding” [4]. A list of these projects and the concept
papers is shown in Table 3.
The
program has produced 35 CP-competent people from five academic institutions and
eight industries, most of which are still considerably active and proficient in
the field of CP. For
examples, all of the mentors have registered
to be members of “Cleaner Production
Research and Education Consortium”, which is established and coordinated by
NSTDA, and actively contributed to many NSTDA CP activities such as “Development of Train the Trainer
Curriculums on CP Audit and Applications”. Most of the factories are still
implementing CP in their production, and some of them have even offered jobs for
interns to continue the work after the end of the program. Moreover, 50% of the mentors and 25% of
the factories have shown interest in joining the program again and decided to
participate in the 2000 CPIP.
In
addition, more than 30 CP options were proposed to the industries and were
estimated to save US$115,000 annually besides considerable environmental and
health benefits. Most options
required low investment and had a payback period of within one year. Examples of the detailed options are
shown in Table 4.
The
authors would like to express our sincere thanks to all of the 1999 CPIP
participants for their cooperation and dedication. Our gratitude also goes to Thailand
Environment Institute, the Industrial Environment Institute under the Federation
of Thai Industries, and the Faculty of Engineering at Kasetsart University for
their consistent supports to the program especially during the intensive
training on CP audit.
REFERENCE
[1] Yuvaniyama, C,
Shiowatana, J., Santitaweeroek, Y., Mungcharoen, T., Limpaseni W., Farag, I.H.
(1999). The 1998 Cleaner Production Internship Program in Thailand. Global Competitiveness through Cleaner
Production. J.A. Scott and R.J. Pagan (ed.), Australian Cleaner Production
Association Inc., Australia, pp.219-225.
[2] Environmental Science
and Technology Program, National Science and Technology Development Agency
(1999). Guidelines for the 1999 Cleaner
Production Internship Program. Thailand, 30 pages.
[3] Environmental Science
and Technology Program, National Science and Technology Development Agency
(1999). Training Workshop for participants in the
1999 CPIP on CP Audit. Thailand, 133 pages.
[4] The Energy and Cleaner
Technology Program, National Science and Technology Development Agency
(1998). Guidelines for Writing RD&E Projects on
Cleaner Production for NSTDA Funding. Thailand, 8
pages.
Table
1: The 1999 CPIP Activities
|
Period |
Event |
|
Feb 9, 1999 (1 day) Mar 18–23,
1999 (3.5 days) Mar
29 – Apr 7, 1999 Apr 10, 1999 Apr
12 – May 5, 1999 May
8, 1999 May
9–21, 1999 May
29, 1999 |
First
meeting for mentors and factory coordinators Opening Ceremony of the Internship Program and Training on CP Audit Internship
Phase 1
CP Project Proposal Presentations Internship
Phase 2
Project
Progress Presentations Internship
Phase 3
Presentations
of Intern’s Final Reports and Mentor’s Concept Papers and Closing
Ceremony |
Table
2: List of academic institutions in the 1999 CPIP
|
|
University
and Academic Institutions | |
|
1.
Chulalongkorn
University |
| |
|
2.
Kasetsart
University |
| |
|
3.
King
Mongkut’s Institute of Technology, Ladkrabang |
| |
|
4.
King
Mongkut’s Institute of Technology, North Bangkok |
| |
|
5.
Mahidol
University |
| |
RD&E
Projects |
|
·
Application
of clean technology on drying process of rice noodle by using heat pump
dryer. ·
Development
of rice flour production for making rice noodle. ·
The
study of fuzzy logic viscosity control of warp sizing
solution. ·
Recovery
of white mineral oil used for scrubbing aluminium alkyl
compound. |
RD&E
Concept Papers |
|
·
Application
of cleaner technology on frying process in the preparation of instant
fried noodles. ·
Stock
cutting optimization: irregular stock with regular
blanks. ·
The
study of batch-time optimization of a slurry-making unit in a non-soap
detergent plant. ·
The
study of a machine development to reduce paint dust, waste water, and
sludge generating from a painting unit in a production of X-ray
instruments. |
Problems
in Productions |
Proposed
CP Options |
Proposed
Saving |
|
·
Loss
of dried noodles in a packing step. ·
Loss
of noodles in a cutting step. ·
Loss
of noodles in a stripping step. |
· Change
the location of the packing unit to be close to the drying
unit.
· Improve
or change a cutting machine to a higher efficient
one. · Study
factors that affect to the stripping process e.g. % moisture content in
the noodle, aging time for equilibration of noodle before
stripping. |
· ~$US
2,000 / year
(Decrease
the loss of dried noodle ~30%)
· ~$US
14,000 / year
· ~$US
19,000 / year
(Reduce
noodle loss and save labor cost) |
|
·
Unnecessary
waste of raw material in the storage area. · Waste
from a bone-pressing unit in a production of dog-chew
products. |
· Redesign
the storage area’s layout using the two-bin process technique and apply
the Economic Order Quantity method to control the entire
inventory.
· Set
standard time for wetting process of a 3.5-inch pressed
bone. |
· ~$US
19,500 / year (Waste
minimization and better inventory) · ~$US
9,700 / year (Reduce
waste and processing time) |
|
·
Loss
of palm oil and steam energy from a frying process in a preparation of
instant fried noodles. ·
Loss
of wheat flour in the bag filter after pouring it into a
mixer. |
· Optimize
a temperature range for the noodle frying process. · Develop
a good pouring method to remove most of the flour from the
filter. |
· ~$US
23,000 / year (Save
~30,000 kg/year of palm oil and 1% of steam energy for oil
heating) · ~$US
6,000 / year (Save
~14 ton/year of wheat flour) |
|
·
Large
amount of water consumption and wastewater generated from a washing step
using water overflow method in a rice flour
production. |
· Reduce
time of water overflow from 60 minutes to 30
minutes. · Filter
water from the second washing stage and reuse it in the first
stage. |
~$US
10,000 / year
(Save
~30,000 m3/year of water consumption and waste water
treatment) |
|
·
Excessive
fresh water consumption for plastic dust collecting ·
Condensate
loss because of inappropriate size of steam traps
|
· Use
effluent water instead of fresh water · Change
6 steam traps to their appropriate sizes. |
· ~$US
3,000 / year · ~$US
10,000 / year (Recover
condensate and reduce steam
leakage) |