The document discusses low carbon buildings in Malaysia, highlighting their design principles, performance metrics based on actual carbon emissions rather than point systems, and the use of green technologies to enhance sustainability. It emphasizes the importance of an integrated design approach, energy efficiency, and monitoring of energy consumption to achieve lower carbon footprints in building operations. The document also provides examples of government initiatives and private projects that promote low carbon and energy-efficient practices in building design and management.

1. ENERGY EFFICIENT / LOW CARBON
GREEN BUILDING PERFORMANCE DESIGN
Steve Anthony Lojuntin
Deputy Director Energy Efficiency Project Team
Sustainable Energy Development Authoritry @ SEDA Malaysia
Tel / SMS :+6019-2829102 Email: steve@seda.gov.my / asetip@damansara.net

2. Brief about
Low Carbon Building
What are the Low Carbon buildings ?
• Low Carbon Building is similar to the
conventional green building system which
promotes uses of green technology and green
habits to reduce the degradation of the
environment.
• Use Carbon as metric for references to achieve
the actual environment impact and not based on
points collected.
• Use UNEP SBCI Common
Carbon Metric.

3. Brief about
Low Carbon Building
What are the Low Carbon buildings ?
• Straight forward, transparent, easy to
implement, consistance, easy to monitor since
based on actual performance. Measurable,
recordable, comparable, justifiable, can be
monitor and easy to proof.
• Cheaper and affordable since it is straight
forward and focus only the relevant criteria that
have high impact (lower $$$/CO2 reduction cost).
• Global trend- Relevant and gain popularity at
international level.

4. Brief about Low Carbon Green
Building
Green Technology Green Habits /
Involved Thinking
- Energy - Awareness / Responsibility
- Indoor Environment - Procurement
- Water Management - Operation & Maintenance
- Material used - Recycling
- Site construction
-
Green / Sustainable / Low
Carbon Buildings

5. General Green Building System
Alternative
under
Conventional Green Building System development
LOW
CARBON
BUILDING
PRIVATE INITIATIVE (Malaysia)
1. Energy
2. Water
3. Indoor
environme
nt
4. Waste
Gov.
Initiatives
-CASBuild for
BCIS (GreenTech
Malaysia –
consultancy projects)
- GreenPASS
(CIDB)

6. Carbon Exist in Most of
the Green Building Criteria

7. WHERE DOES THE CARBON COME FROM?

8. Carbon emission in a life cycle of a building
Pre -
ne, / Design
D
De esig Embodied Energy / CO2
cli tion on vel n &
De oli ati op
me footprint]
em ner
D ge
nt
re
Building
Lifecycle
Use, Management &
Maintenance
[Operational Energy /
CO2 footprint]
FACT! Most of the Energy / CO2e emission are during the operation
phase !!

9. Green Technology / application in
Buildings to reduce carbon foot print
-The green technology in building is mostly refer to the technology
and applications that has impact to the Energy and Environment
related to building services
a) Design : Energy Efficiency, Renewable Energy &
Water Management.
b) Office appliances
c) Operation: Energy management in the O&M.
d) Renovation / retrofits
e) Other - Paper and water recycling
- Indoor air quality.
- Solid waste management / separation
f) End users awareness

10. Relation between use of energy and the
environment
0.684 kg of CO2 emitted to the
atmosphere for each 1 kWh electricity
generated by power plant (Peninsula
Malaysia)
Kawasan 2007
Semenanjung Malaysia 0.684 kg CO2 / kwj
Sarawak 0.873 kg CO2 / kwj
Kawasan Barat Sabah 0.807 kg CO2 / kwj
Kawasan Timur Sabah 0.709 kg CO2 / kwj
Sumber: Laporan Penanda Aras Clean Development Mechanism (CDM) Malaysia
2007 oleh Pusat Tenaga Malaysia.

11. Examples of Government Low
Carbon Building

12. Understand the factors affecting the energy
consumption in buildings that contribute main
carbon emission
OPERATIONAL CARBON ≡ OPERATIONAL ENERGY

13. Use of energy in commercial buildings
Plug
loads/others
20%
Tenaga Central A/C
Lighting
55%
18%
Split A/C
7%
Source: Energy Audit in
Government Buildings (2003) by Pusat
Tenaga Malaysia / GreenTech Malaysia

14. Example of Energy Used in an Industrial
Building
Energy

15. Power Demand [kW]
0
50
100
150
200
250
300
350
400
450
17/01/2008 01:15
17/01/2008 02:15
17/01/2008 03:15
17/01/2008 04:15
17/01/2008 05:15
17/01/2008 06:15
17/01/2008 07:15
17/01/2008 08:15
17/01/2008 09:15
17/01/2008 10:15
17/01/2008 11:15
17/01/2008 12:15
17/01/2008 13:15
Load Profile & Base Load
17/01/2008 14:15
17/01/2008 15:15
Typical Daily Load Profile
17/01/2008 16:15
VARIABLE LOAD
17/01/2008 17:15
17/01/2008 18:00
BASE LOAD (24 hrs)
17/01/2008 19:00
17/01/2008 20:00
17/01/2008 21:00
17/01/2008 22:00
17/01/2008 23:00
18/01/2008 00:00
18/01/2008 01:00

16. Load Profile & Base Load
A typical Building Load Profile During Working Day
(Extracted from Building Energy Audit Guideline)
600
500
400
Total
kW
300 Air-Con
Light & Power
200
85 kW
100
∑=30 kW
0
00:00 03:30 07:00 10:30 14:00 17:30 21:00
Time

17. Load Profile & Base Load
∑=14 kW

18. Power Demand [kW]
0
50
100
150
200
250
300
350
400
450
11/01/2008 06:00
11/01/2008 10:15
11/01/2008 14:45
11/01/2008 19:15
11/01/2008 23:45
12/01/2008 04:15
12/01/2008 08:45
12/01/2008 13:15
12/01/2008 17:45
12/01/2008 22:15
13/01/2008 02:45
13/01/2008 07:15
13/01/2008 11:45
13/01/2008 16:15
13/01/2008 20:45
14/01/2008 01:15
14/01/2008 05:45
14/01/2008 10:00
14/01/2008 14:30
14/01/2008 19:00
14/01/2008 23:30
15/01/2008 04:00
Load Profile & Base Load
15/01/2008 08:30
Load Profile of a Building
15/01/2008 13:00
15/01/2008 17:30
15/01/2008 22:00
16/01/2008 02:30
16/01/2008 07:00
16/01/2008 11:30
16/01/2008 16:00
16/01/2008 20:30
17/01/2008 01:00
17/01/2008 05:30
17/01/2008 10:00
17/01/2008 14:30
17/01/2008 19:00
17/01/2008 23:30
∑=140 kW

19. Load Profile & Base Load
∑=7 - 8 kW

20. ∑=114 kW

21. Base Load Apportioning
Night Power Consumer ~ 114 kW
Others, 16.6, 14% Total Split units,
41.8, 33%
Transformer
losses, 7, 6%
Core Area, 13.7,
11%
Communications
Equipment, 3.7, 3%
Office lighting &
UPS losses, 12,
Equipment, 19.1,
10%
16%
Data Center, 8, 7%

22. Estimated ACSU Power [W] = 41.806 kW
CELCOM
3%
SDF1
LMR 5%
11% SDF2
5%
BMDF
TELCO 5%
14%
PABX
7%
PID
3%
DATA UPS
15% 24%
KEBAL BCR
SR
2% 4% 2%

23. IMPORTANT REQUIREMENT !
COMMITMENT FROM THE
USER / CLIENT
NEED STATEMENT ON BUILDING PERFORMANCE AND EE
/ LOW CARBON TARGET BY THE USER – ‘AS POLICY’
DESIGN OPERATION AND USERS / OCCUPANTS
PERFORMANCE MAINTENANCE ARE ROLE / INTERACTION TO
ACCORDING TO THE ACCORDING TO THE THE BUILDING
NEED STATEMENT NEED STATEMENT PERFORMANCE
EE / LOW CARBON BUILDING PERFORMANCE

24. INTEGERATED DESIGN APPROACH TO
GET THE BEST / LOWEST POSSIBLE
ENERGY CONSUMPTION
M&E C&S
ARCHITECTS ENGINEERS ENGINEERS
INTERIOR
DESIGNER
OWNER /
BRAINSTORM USERS
FACILITIES
MANAGEMENT
ENERGY / LOW
ICT LANDSCAPE CARBON / GREEN
CONSULTANT CONSULTANT CONSULTANT

25. INTEGERATED DESIGN APPROACH TO
GET THE BEST / LOWEST POSSIBLE
ENERGY CONSUMPTION
Consider
Technologies and
ROOT CAUSED Human Factor.
ANALYSIS * Use of technology are
METHOD not the ultimate solution.
Conduct Energy WHY? WHAT?
& Carbon HOW? WHEN?
Performance WHO?
Analysis

26. CHOOSE THE MOST
APPRIOPRATE STRATEGIES
Double glazing? Radiant cooling?
CAV? Water cooled sys?
COOLING SYSTEM VSD? Air cooled sys?
Wall Insulation? Air tight Low
VAV? resistance air
Façade building?
High COP
design? Low losses system?
sys? Electrical chiller?
distribution?
Absorption
Efficient cooling
Centralise chiller?
tower?
system? LED? Induction light?
Stand alone Split EQUIPMENT USED
Unit? EE Office
High Eff. Motor?
Lighting level? appliances?
Daylighting? Shared printers?
Green ICT?
EE Lighting? Light shelves? High efficient
Water efficient Energy
reflector?
fittings? Management
LIGHTING SYSTEM Rain water System?
Task Light? harvest?

27. SELECTION OF DESIGN STRATEGIES
- The design and selection of the strategies are
depends ultimate design target that required to be
achieved !
- Different building will have different design
strategies depend on the nature and physical of the
building.
- Any irrelevant measures or too expensive could be
omitted. Can be justified!
- The best is to put priority strategies that have high
performance impact with low or minimum cost to
implement (kWh or CO2 reduction / $$$ invested)

28. EXAMPLES / CASE
NEW BUILDING DESIGN

29. KeTTHA’s LEO Building
: ENERGY DESIGN ELEMENTS

30. Energy Saving Features in LEO Optimisation
ENERGY 1 Building
- 0
EE in Building Guideline Target (136kWh/m2/yr)
Reference Case 275
Daylight use 247
Insulation in walls and roof 239
EE Lighting 22 - 16 w/m2
223
Equipment 27 – 20 w/m2 195
EE Light 16 – 8 w/m2 173
EE Equipment 20 - 7.5 w/2 123 56%
"Energy Management” 112 reduction
Room Temp 23 - 24 degrees 102 Potential GreenPASS (Operational
carbon) Rating
Especially Tight Building 100
0 100 1000 200 300
Energy Index kWh/m2year

31. LEO Building Performance
LEO Building
Average Building Energy Index (BEI) in Parcel B
Comparison LEO Building with several LEO BEI = 100
[kWh/m2/yr]
buildings in Putrajaya (Conventional) BEI = 275
400 378
349
350 321 322
315 175 kWh/m2year
296
300 268 278 273
253 = 3,366,475 kWh/yr
250 236 233
or more than RM 800,000
[k W h /m 2 /y r]
215
196 198 per year
200 Tariff C1
167
28.8 sen/kWh
150 123114
Savings = 56%
100
50
= 3,366,475 kWh/yr x
- 0.614 kg CO2/kwh
B1 B2 B3 B4 B5 B6 B7 B8 E4/5 = 2,067,016 kg/year CO2
AVERAGE (3276 hrs/yr) AVERAGE (Normalised to 2646hrs/yr) Blocks = 2,067 tones CO2/year

32. LEO Monitoring & Performance
Monthly Energy Index for Energy Index
Building LEO Building [kW h/m2/year]
160
(Based on Energy Bills)
160
149
149
Average
140 Current
140 Target
128
128
128
114
124
124
124
123
122
122
122
122
122
121
124
120
120
124
120
119
122 123
120 122 121 122
118
118
118
117
116
116
116
116
115
118 120 116
115
Energy Index [kWh/m2/year]
114
115 117
113
113
113
112
120 116
120
111
110
110
111
113 114
109
109
108
108
108
111 112 112
107
111
106
106
106
105
109 109 108 110
107 108 108
103
106 102 106 106
100
105
100
100
103 102
99
100 100
97
97
99
[kWh/m2/yr]
100 97 97
95
94
100 95 94
94
94
93
93
92
94
92
92
91
90
91
92 92 90
90
90
90
90
89
90
89
89
89
90 90
88
89 90
88
88
89 88
87
87
87
87
87
87 88 87
86
88
85
87
83
82
81
83 83
81
80
80
80
80
82
79
79
79
80 81 79 80 78 81 79
78
78
79 80 77 78 80
78
77
77
76
80 78 77
74
76
73
80 73 74
64
64
64
60
60
38
38
4036
35
35
36
36
33
33
34
38
32
38
32
32
32
31
31
31
31
30
30
30
30
30
40
30
30
30
29
29
29
35
29
29
35 33
28
28
28
33
27
27
27
31 30 32
26
26
26
26
30 31 32 29 32
25
26
25
25
25
24
31
24
30 30
24
24
29 28 27 29
23
29 29 27 29
20
26 25 27 26 25 26 26
18
24 24
16
23
20
20 16
20
18
-
-
0
0
May 05
May 06
May 07
Nov 04
Mac 05
July 05
Nov 05
Mac 06
July 06
Nov 06
Mac 07
July 07
Design
Oct 04
Dec 04
Jan 05
Feb 05
April 05
June 05
Aug 05
Sept 05
Oct 05
Dec 05
Jan 06
Feb 06
April 06
June 06
Aug 06
Sept 06
Oct 06
Dec 06
Jan 07
Feb 07
April 07
June 07
Aug 07
Sept 07
Oct 07
AVERAGE
AVERAGE
Chilled Water-Cooling Index [kWh/m2/yr] Electrical Energy Index [kWh/m2/yr] Building Energy Index [kWh/m2/yr]
Cooling Energy Consumption [kW h] Electrical Energy Consumption [kW h] Building Energy Index [kW h/m2/yr] Month

33. GreenTech Malaysia’s GEO Building
: DESIGN ELEMENTS
- Daylighting (almost 100%)
- EE lighting + task lights
- EE office equipment (laptops, LCD monitors, networked printers)
- Green IT Network & server room (75% wireless network)
- EE air conditioning & ventilation
- Floor slab cooling (For radiant cooling and thermal storage)
- PCM storage cooling system (minimised air-cond chillers capacity)
- Controls & Sensors (VSDs, VAVs, CO2, BMS / Energy monitoring)
- Double glazing (heat and sound insulation)
- Roof and wall Insulation (reduce outside heat gain)
- Grid connected BIPV system (Sell energy to TNB / no batteries)
- Rain water harvest system (landscape, aircond and cleaning)

34. Monitored GEO Building Energy
Index
MONTHLY GEO BUILDING ENERGY PERFORMANCE
Energy Consumed / Energy Generated [kWh/month]
35,000 180.0
29,102
28,417
27,981
28,012
160.0
25,876
25,784
30,000
24,954
24,851
23,777
23,635
140.0
22,251
20,244
25,000
20,110
19,600
BEI [kWh/m2/year]
120.0
18,466
17,700
17,456
17,323
16,724
16,737
110 111
16,410
16,198
16,066
20,000 104 105
14,995
97.9 100.0
96
90 92 91 93 88
80.0
6,102 10,660
10,312
15,000
10,067
75 75 73
69
9,523
9,511
9,394
68
9,109
9,105
8,968
8,824
8,796
8,744
65 62 64 63 62
8,586
8,539
8,407
63.0
8,368
8,213
8,205
8,234
8,052
60 62 60.0
7,419
7,268
6,993
6,762
6,148
10,000
37 34 40 33 37 35 40 40.0
33 32 36 35 33 35 34
5,000 30 30 33 32 31 32
26 27 28 23 23 20.0
0
0
0 Avera
0 0.0
Avera July Aug Sept Nov Mac May June July Aug Sept Nov Mac May June
ge Oct 08 Dec 08 Jan 09 Feb 09 Apr 09 Oct 09 Dec 09 Jan 10 Feb 10 Apr 10
ge 08 08 08 08 09 09 09 09 09 09 09 10 10 10
(with
kWh PV 8,824 8,368 6,993 8,213 9,394 9,523 8,586 8,205 8,796 9,109 9,105 10,312 8,968 8,234 10,067 9,511 8,052 8,539 6,762 7,268 7,419 8,407 6,148 8,744 10,660 0
kWh Total 25,876 16,724 25,784 27,981 22,251 24,851 23,635 24,954 23,777 29,102 28,012 28,417 20,244 18,466 20,110 17,456 16,066 17,323 16,410 16,737 16,198 14,995 19,600 17,700 6,102 0
Num of Days 13 31 30 31 30 31 31 28 31 30 31 30 31 31 30 31 30 31 31 28 31 30 2 0
BEI [kWh/m2/yr] 97.9 63.0 96 110 90 92 91 93 88 111 104 105 75 69 75 65 62 64 63 62 60 62 73 68 23 0
BEI PV 33 32 30 36 35 33 30 33 37 34 40 33 32 37 35 31 32 26 27 28 35 23 34 40 0
kWh PV kWh Total BEI [kWh/m2/yr] BEI PV Linear (BEI [kWh/m2/yr] )

35. The GEO Building: CO2 Emission
MONTHLY GEO BUILDING CO2 EMMISSION PERFORMANCE
25
Emits = 140 ton CO2/yr
CO2 Emmission [Ton Co2/month] = 44 kg CO2/m2/yr
19.79
19.32
19.05
19.03
20 NET = 66 ton CO2/yr
17.53
16.97
16.90
= 20 kg CO2/m2/yr
18
16.17
16.07
15.13
13.77
13.67
13.60
13.33
13.44
15
12.86
12.78
12.56
12.31
12.04
11.87
11.78
11.38
11.39
11.16
11.01
10.92
10.42
12
10.20
10.23
11
10.19
9.15
6.39 8.74
10
6.107.67
4.15 7.25
7.01
6.96
6.85
6.83
6.48
6.47
4.60 6.56
6.44
6.19
6.19
5.98
6.09
5.95
5.97
5.97
5.84
5.81
5.72
5.58
5.58
5.60
5.48
5.40
5.45
5.04
4.94
6
4.76
6
6
4.48
4.18
5
0.00
0.00
0.00
0 Ave
Ave July Aug Sept Oct Nov Dec Jan Feb Mac Apr May Jun July Aug Sept Oct Nov Dec Jan Feb Mac Apr May Jun
rage
rage 08 08 08 08 08 08 09 09 09 09 09 e 09 09 09 09 09 09 09 10 10 10 10 10 e 10
(wit
Emmision [Ton CO2] 18 11 17.53 19.03 15.13 16.90 16.07 16.97 16.17 19.79 19.05 19.32 13.77 12.56 13.67 11.87 10.92 11.78 11.16 11.38 11.01 10.20 13.33 12.04 4.15 0.00
Offset Emmision by PV [Ton CO2] 6 6 4.76 5.58 6.39 6.48 5.84 5.58 5.98 6.19 6.19 7.01 6.10 5.60 6.85 6.47 5.48 5.81 4.60 4.94 5.04 5.72 4.18 5.95 7.25 0.00
Net Emmision by GEO Building [Ton CO2] 12 6 12.78 13.44 8.74 10.42 10.23 11.39 10.19 13.60 12.86 12.31 7.67 6.96 6.83 5.40 5.45 5.97 6.56 6.44 5.97 4.48 9.15 6.09 (3.10)0.00
Emmision [Ton CO2] Offset Emmision by PV [Ton CO2] Net Emmision by GEO Building [Ton CO2]

36. Energy (& CO2) Savings
GEO BEI = 65 Savings = 70%
(Conventional) BEI = 220 Net saving with Renewable Energy = 85%
a/c area 3,175 sq.m
155 kWh/m2year Potential GreenPASS (Operational
carbon) Rating
Energy saved = 492,125 kWh/yr
or RM 195,374 per year
Tariff B (Low Voltage Commercial Tariff) for all kWh
39.7 sen/kWh
Old tariff B ; 40.8 sen/kWh
CO2 saved = 492,125 x 0.614
= 302,165 kg/year CO2
= 302 tones CO2/year
0.614 kg of CO2 emitted to the atmosphere for each 1
kWh electricity generated by power plant (Peninsula
Malaysia)

37. An Example of 37 Storey and Slim Building
: ENERGY DESIGN ELEMENTS
Energy Saving Strategies To Reduced Building Energy Index [kW 2/year]
h/m
1 Base
Use norm brick w with 90%w glazing (6m clear glass)
al all all m 382
Reduce W Rfrom90 to 60%
W 332
U 12m light green tinted, LT=63% Shading=0.57)
se m , 311
2
Energy Saving Strategies
Illuminance 300 - 400 Lux and occ.sensors 294
3
EElighting (11.5W 2)
/m 288
4
Use of daylighting w daylight sensors
ith 265
5
Energyefficienct office equipm (10W
ent ) 237
6
Energyefficient fans and motors 227 67%
7
EnergyEfficient aircond systemwith B S, C P3.8
A O 162 reduction
8
Roomtemperature 24 degC 142
9
11 10
Fresh air control + Heat wheel 131
Potential GreenPASS (Operational
U A instead of bricks
se LC 127 carbon) Rating
- 50 100 150 200 250 300 350 400 450

38. A Government School Computer Lab
: ENERGY DESIGN ELEMENTS
54.8%
reduction
Potential GreenPASS (Operational
carbon) Rating

39. A Government School Computer Lab
: ENERGY DESIGN ELEMENTS

40. A Government School Computer Lab
: ENERGY DESIGN ELEMENTS

41. EXAMPLES / CASE
RETROFIT BUILDING

42. Retrofitted Warehouse / Workshop Building with
Enhance Energy Management in Shah Alam
Annual Saving
Measures Electrical
kWh/yr RM/yr
No Cost Measures
De-lamping office lighting 13,476 3,153.38
Low Cost Measures
Use timer controller for temperature and operate silo ventilation 687,760 160,935.84
Use of daylight in warehouse 19,943 4,666.66
Replace normal EXIT signage to LED 2,208 516.67
Awareness campaigns 703,931 164,719.85
High Cost Measures
Replace the Metal Halide lamps to T5HO lamps 957,012 223,940.81
Lighting zoning 498,584 116,668.66
TOTAL Actual Cost 2,882,914 674,602
Reduction Potential GreenPASS (Operational
50% carbon) Rating

43. Guidelines and Code of Practice on Energy Efficiency
& Renewable Energy Building to achieve Low Carbon
Buildings
Development and Publication of EE in Buildings Guidelines
by Ministry of Energy, Telecommunications & Post, 1989.
MS1525 : 2001 – Code of Practise Use of Energy Efficiency
and Renewable Energy for Non-residential Buildings
(Revised in 2007) by SIRIM.
Malaysia Industrial Energy Audit Guidelines, a handbook for
energy auditors by KTAK, PTM and UNDP-GEF, 2003.
Guidelines for Conducting Energy Audits in Commercial
Buildings by KTAK & PTM, 2004.
Design Strategies for Energy Efficiency in New Buildings
(Non-Domestic) by KTAK, DANIDA & JKR, 2004.
Energy Efficiency & Conservation Guidelines for Malaysian
Industries by KTAK, PTM and UNDP-GEF;
- Part 1 : Electrical Energy-use Equipment, 2007.
- Part 2 : Thermal Energy-use Equipment (2010)
Low Carbon Cities Framework & Assessment System
(2011) by KeTTHA and GreenTech Malaysia with collaboration
with MIP

44. Green Technology & Green Practises
TECHNOLOGIES CAN BE
CONSIDERED TO REDUCE
CARBON EMISSION
(ENERGY EFFICIENCY, RENEWABLE
ENERGY, WATER MANAGEMENT AND
GREEN PRACTICE)

45. Summary of Features that helps
to reduce carbon
- Daylighting
- EE lighting + task lights
- EE office equipment (laptops, LCD monitors, networked printers)
- Green IT Network, system & appliances
- Green server room, High temperature server room.
- EE air conditioning & ventilation
- Storage cooling system (minimise chillers capacity)
- Controls & Sensors (VSDs, VAVs, CO2, BMS / Energy monitoring)
- Double glazing (heat and sound insulation)
- Roof and wall Insulation (reduce outside heat gain)
- Grid connected BIPV system (Sell energy to TNB / no batteries)
- Rain water harvest system (landscape, aircond and cleaning)
- Water management, Awareness & Operation & Maintenance

46. Water Management
Reduce use of water
• Install efficient water taps to control the amount of water.
• Recycle water from basin or surau for watering the landscape.
• Recycle condensate water from airconditioning system for
general cleaning or landscape.
• Rain water harvest System for non-drinking purpose.
Efficient use of water will reduce production of treated
water
Reduce operation and distribution of water supply
reduce carbon footprint in the operation of buildings

47. Thank you for your attention
Get copy of paper? - Tel / SMS :019-2829102
steve@seda.gov.my / asetip@damansara.net
Steve Anthony Lojuntin
SEDA Malaysia, Phone : +603-8870 5800
Galeria PjH, Level 9 Email: fit@seda.gov.my
Jalan P4W, Persiaran Perdana, Web: www.seda.gov.my 47
Presint 4, 62100 Putrajaya, Malaysia.