MCMC MTSFB TC T014 :2022  
 TECHNICAL  CODE  
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
DIGITAL TERRESTRIAL TELEVISION (DTT) - 
ACTIVE INDOOR ANTENNA  
(FIRST REVISION)  
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
Developed  by  Registered  by 
  
 
 
 
Registered date: 5 July 2022  
 
© Copyright  2022 
  
MCMC MTSFB TC T014 :2022  
 Development of technical codes  
 
 
The Communications  and Multimedia  Act 1998  (‘the Act’) provides  for Technical  Standards  Forum  
designated  under  section  184 of the Act or the Malaysian  Communications  and Multimedia  Commission  
(‘the Commission’)  to prepare  a technical  code.  The technical  code  prepared  pursuant  to section  185 
of the Act shall consist  of at least,  the requirement  for network  interoperability  and the promotion  of 
safety  of network  facilities.  
 
Section  96 of the Act also provides  for the Commission  to determine  a technical  code  in accordance  
with section  55 of the Act if the technical  code  is not developed  under  an applicable  provision  of the Act 
and it is unlikely  to be developed  by the Technical  Standards  Forum  within  a reasonable  time.  
 
In exercise  of the power  conferred  by section  184 of the Act, the Commission  has designated  the 
Malaysian  Technical  Standards  Forum  Bhd (MTSFB)  as a Technical  Standards  Forum  which  is 
obligated,  among  others,  to prepare  the technical  code  under  section  185 of the Act. 
 
A technical  code  prepared  in accordance  with section  185 shall not be effective  until it is registered  by 
the Commission  pursuant  to section  95 of the Act. 
 
For further  information  on the technical  code,  please  contact:  
 
Malaysian  Communications  and Multimedia  Commission  (MCMC )  
MCMC Tower 1  
Jalan Impact  
Cyber 6  
63000  Cyberjaya  
Selangor  Darul  Ehsan  
MALAYSIA  
 
Tel: +60 3 8688  8000  
Fax: +60 3 8688  1000  
http://www.mcmc.gov.my  
 
 
OR 
 
 
Malaysian  Technical  Standards  Forum  Bhd (MTSFB ) 
MCMC  Centre of Excellence (CoE)  
Off Persiaran Multimedia  
Jalan Impact  
63000 Cyberjaya  
Selangor Darul Ehsan  
MALAYSIA  
 
Tel: +60 3 8320 0300  
Fax: +60 3 8322 0115  
http://www.mtsfb.org.my  MCMC MTSFB TC T014 :2022  
i Contents  
 
Page  
 
Committee representation  ................................ ................................ ................................ .......................  ii 
Foreword   ................................ ................................ ................................ ................................ ................  iii 
 
1.  Scope  ................................ ................................ ................................ ................................ ..............  1 
2.  Normative references  ................................ ................................ ................................ ......................  1 
3.  Abbreviations  ................................ ................................ ................................ ................................ ... 1 
4.  Terms  and definitions  ................................ ................................ ................................ ......................  2 
 4.1 Active indoor  antenna  ................................ ................................ ................................ ..............  2 
5.  Requirements  ................................ ................................ ................................ ................................ .. 2 
 5.1 General requirements  ................................ ................................ ................................ ..............  2 
 5.2  Technical requirements  ................................ ................................ ................................ ...........  3 
 
Annex A  Normative references  ................................ ................................ ................................ ..............  8 
Annex B  Testing procedures  ................................ ................................ ................................ ..................  9 
 
  MCMC MTSFB TC T014 :2022  
ii Committee  representation  
 
 
This technical code was developed by the Multimedia Broadcast Receiver  Sub Working Group under 
the Broadcast Technology  Working Group of the Malaysian Technical Standards Forum Bhd (MTSFB ) 
which consists of representatives from the following organisations:  
 
Fraunhofer IIS  
LG Electronics (M) Sdn Bhd  
Maxis Broadband Sdn Bhd  
Measat Broadcast Network System Sdn Bhd  
Media Prima Berhad  
Multimedia University ( MMU)  
MYTV Broadcasting Sdn Bhd  
Samsung Malaysia Electronics (SME) Sdn Bhd  
Sharp Electronics (M) Sdn Bhd  
SIRIM Berhad  
SmarDTV Global S.A.S  
Sony EMCS Malaysia Sdn Bhd  
Telekom Malaysia Berhad  
Wideminds Pte Ltd  MCMC MTSFB TC T014 :2022  
iii Foreword  
 
 
This technical code for Digital Terrestrial Television (DTT) - Active Indoor Antenna (‘this Technical 
Code’) was developed pursuant to Section 95 and Section 185 of the Act 588 by the Malaysian 
Technical Standards Forum Bhd (‘MTSFB’) via its  Broadcast Technology Working Group.  
 
This Technical Code was developed for the purpose of certifyin g communications equipment under the  
Communications and Multimedia (Technical Standards) Regulations 2000.  
 
Major modifications in this revision are as follows:  
 
a) Remov al of technical requirements which are p assive antenna gain, suppression of unwanted 
signals and power consumption . 
 
b) Update of the frequency range f or DTT active indoor antenna between 470  MHz to 694 MHz  
(Clause 5.2.1).  
 
c) Update of the antenna gain parameter between 6dBi to 20dBi  (Clause 5.2.2) . 
 
d) Update of clause title from d irectivity parameter to antenna pattern directivity and categori sed it as 
an optional technical requirement (clause 5.2.6) . 
 
e) Update of temperature range between 15°C to 35°C  (Clause 5.2.7) . 
 
f) Inclusion of normative references of ETSI EN 303 354 and IEC 61000 -4-2 in Annex A.  
 
g) Removal of testing procedures for passive antenna gain and directivity in Annex B . 
 
This Technical Code replaces the MCMC MTSFB TC  T014:2017, Digital Terrestrial Television (DTT) - 
Active Indoor Antenna . 
 
This Technical Code shall co ntinue to be valid and effective from the date of its registration until it is  
replaced or revoked.  
 
 
 
 
 
 
 
  
 MCMC MTSFB TC T014 :2022  
 
 
 MCMC MTSFB TC T014 :2022  
1 DIGITAL TERRESTRIAL TELEVISION (DTT) - 
ACTIVE INDOOR ANTENNA  
 
 
1. Scope  
 
This Technical Code specifies the minimum requirements for Digital Terrestrial Television (DTT) active 
indoor antennas  for the reception of DTT broadcast  services  in the Ultra High Frequency (UHF ) range 
of 470 MHz - 694 MHz . 
 
 
2. Normative references  
 
The following normative references ar e indispensable for the application of this Technical Code . For 
dated references, only the edition cited applies. For undated references, the  latest edition of the 
normative references (including any amendments) applies.  
 
See Annex A.  
 
 
3. Abbreviations  
 
For the purposes of this Technical Code, the following abbreviations apply.   
 
AC Alternating Current  
DC Direct Current  
DTT Digital Terrestrial Television  
ESD Electrostatic Discharge  
EUT Equipment U nder Test  
IDTV  Integrated Digital Television  
IM Intermodulation  
LOS Line of Sight  
NF Noise Figure  
OIP 3 Output 3rd Order Intercept Point  
PVC Polyvinyl Chloride  
RF Radio Frequency  
S/N Signal -To-Noise  
STB Set Top Box  
UHF Ultra High Frequency  
USB Universal Serial Bus  
VSWR  Vertical Standing Wave Ratio  
 
  MCMC MTSFB TC T014 :2022  
2 4. Terms and definitions  
 
For the purposes of this Technical Code, the following terms and definitions are applied. 
 
4.1 Active indoor antenna  
 
An antenna that contains active electronic components such as transistors, as opposed to most 
antennas which only consist of passive components such as metal rods, capacitors and inductors. 
Active antenna designs allow antenna of limited size to have a wider frequency range (bandwidth) than 
passive antenna, and are primarily used in situations where a larger pass ive antenna is either 
impractical (inside a portable radio) or impossible (suburban residential area that disallows use of large 
outdoor low frequency antenna) . 
 
 
5. Requirements  
 
5.1 General requirements  
 
DTT active indoor antenna shall be designed not to cause interference with other authorised 
radiocommunication services, and be able to tolerate any interference caused by other 
radiocommunication services, electrical or electronic equipment.  
 
5.1.1  Power supply  
 
The equipment may be Alternating Current ( AC) or Direct  Current ( DC) powered. For AC powered 
equipment, the operating voltage shall be 240 V +5 %, -10 % and frequency 50 Hz ± 1 % as according 
to MS 406 or 230 V ± 10 % and frequency 50 Hz ± 1 % as according to MS IEC 60038 whichever is 
current.  
 
Where external power supply is used, e.g. AC adaptor, it shall not affect the capability of the equipment 
to meet this specification. Adaptor must be pre -approved by the relevant regulatory body before it can 
be used with the equipment. Adapter shall be subjected to test  under tropical condition as specified in 
the related standard.  
 
Typically,  an active indoor antenna requires voltage and current of 5 V/50 mA (maximum).  Alternatively, 
the power supply may be integrated in the Set Top Box (STB) or Integrated  Digital Telev ision (IDTV) 
with Universal Serial Bus ( USB) power.  
 
5.1.2  Power supply cord and mains plug  
 
If the equipment is fitted with power supply cord and mains plug, the power supply cord and mains plug 
shall be pre -approved by the relevant regulatory body with the fol lowing requirements before being used 
with the equipment:  
 
a) The power supply cord shall be certified according to:  
 
i) MS 2112 -5 or BS EN 50525 -2-11 or IEC 60227 -5 (for Polyvinyl Chloride (PVC) insulated – 
flexible cables  or cords); or  
 
ii) MS 2127 -4 or IEC 60245 -1 (for rubber insulated - flexible cables  or cords).  
 
b) The mains plug shall be certified according to:  
 
i) MS 589 -1 or BS 1363 (for 13 A, fused plug); or  
 MCMC MTSFB TC T014 :2022  
3 ii) MS 1577 (for 15 A, fused plugs); or  
 
iii) MS 1578 or BS EN 50075 (for 2.5 A, 250 V, flat non -rewireable two -pole plugs with cord for the 
connection of class II equipment).  
 
5.1.3  Radio Frequency ( RF) input connector  
 
The Radio Frequency ( RF) input connector shall be complied to IEC 61169 -2. 
 
5.1.4  Marking  
 
The antenna shall be marked with the following information:  
 
a) supplier  or manufacturer’s name or identification mark;  
 
b) supplier  or manufacturer’s model or type reference; and  
 
c) other markings as required by the relevant standards.  
 
The markings shall be legible, indelible and readily visible. All information on the marking shall be either 
in Bahasa Melayu or English Language.  
 
5.2 Technical requirements  
 
The antenna shall comply with the  technical  requirements as summarised in Table 1 . 
 
Table 1. Summary of technical requirements for indoor DTT antenna  
 
No. Parameter  Limit  
1. Operating frequency range  470 MHz – 694 MHz (UHF)  
2. Antenna gain  6 dBi – 20 dBi 
3. Noise Figure  (NF) ≤ 1.5 dB  
4. Output 3rd order intercept point  (OIP 3) ≥ 30 dBm 
5. Return loss  ≤ - 10 dB  
6. Antenna pattern directivity  The indoor antenna should have a near to omni -
directivity pattern as shown in Figure 4.  
7. Temperature range  15 ºC to 35 ºC  
8. Electrostatic Discharge  (ESD)  The ESD of indoor antenna shall withstand 
contact discharges of 2 kV and 4 kV and air 
discharges of 2  kV, 4 kV and 8 kV with both 
polarities plus (+) and minus ( -). 
 
The antenna shall be tested according to the test methods specified in Annex B . 
 
5.2.1  Operating frequency range  
 MCMC MTSFB TC T014 :2022  
4 The active indoor antenna for DTT broadcast service receivers shall operate in the frequency range of 
470 MHz - 694 MHz (UHF).  
5.2.2  Antenna gain  
 
The active antenna gain is defined as the sum of the passive antenna gain and the amplifier gain.  The 
amplifier in an active antenna is primarily designed to overcome the coaxial loss by cable and should 
provide a sufficient gain margin of the total system gain. Deploying an active antenna allows placing an 
antenna remotely (with relatively long cable) as the antenna is powered conveniently over the same 
cable.  
 
The total antenna gain shall be 6 dBi to 20 dBi  antenna gain  over the complete frequency band (470 
MHz – 694 MHz) as stipulated in ETSI EN 303 354 . 
 
5.2.3  Noise Figure (NF)  
 
The low NF is an important performance characteristic  of the antenna amplifier which in general, it is 
better than the front end of the STB to ensure the ability to receive weak stations is greatly improved.  
 
NF is a measure of degradation of the  Signal -To-Noise ( S/N) caused by noise contributed by 
components in the RF signal chain. Less noise contribution will produce a better S/N ratio at the output 
of RF signal chain.  
 
The total noise figure ( F) in a system is defined as:  
 
𝐹=𝐹1+𝐹2−1
𝐺1+𝐹3−1
𝐺1𝐺2+𝐹4−1
𝐺1𝐺2𝐺3+⋯+ 𝐹𝑛−1
𝐺1𝐺2𝐺3…𝐺𝑛−1 
where,  
 
Fn is the noise figure of the n-th device.  
 
This is the case when several devices are cascaded.  
The illustration of an antenna with integrated amplifier connected to a STB is shown in Figure 1.  
 
 
 
Figure 1. System setup of the installation diagram  
 
The indoor antenna shall have a typical noise figure of ≤ 1.5 dB.  
 
5.2.4  Output 3rd order Intercept Point (OIP3)  
 
OIP 3 specifications provide a useful figure for determining the degree of linearity exhibited by RF 
electronic devices  or systems. The linearity of the system will be getting better when the OIP 3 produce 
higher value, thus the RF domain will have better perfor mance in regarding of spectral purity.  
 
 MCMC MTSFB TC T014 :2022  
5 The OIP 3 is the theoretical output level at which the third -order two -tone distortion products are equal 
in power to the desired (wanted) signals. The calculation is based on the following equation.  
 
IM3 = 3Pout - 2OIP 3 
where,  
 
IM3  is third order intermodulation level (dBm);  
 
Pout is single tone power at output (dBm); and  
 
OIP 3 is output third -order intercept point (dBm).  
 
The Intermodulation (IM) products created in active components like amplifiers shall be kept as low as 
possible.  
 
In order to achieve low IM products ( - 60 dBc), amplifiers with high OIP 3 are needed. Figures 2 and 3 
show the result of two carriers when it applied to the amplifier. In Figure 2, each 1 dB increment at the 
input will in crease the output carrier by 1 dB as well but the IM product will be increased by 3 dB. Figure 
3 shows its measurement on a spectrum analyser. The distance between the wanted carriers and the 
IM products is called IMA should be as high as possible.  
 
The UH F spectrum is more occupied by high RF level mobile telecom signals, thus more demands on 
linearity (OIP 3) of the antenna amplifier.  
 
The amplifier shall be capable of handling signals with 0 dBm output level, and assuming that IM 
products are at - 60 dBc . 
 
OIP 3 = (3Pout - IM3)/2 
 
OIP 3 = (3 x 0 - (- 60))/2  
 
OIP 3 = 30 dBm  
 
The indoor antenna shall have a OIP 3 level of ≥ 30 dBm.  
 
  
Figure 2. OIP 3 table  Figure 3. OIP 3 analysing  
 
  
OIP 3 MCMC MTSFB TC T014 :2022  
6 5.2.5  Return loss  
 
Antenna impedance and the quality of the impedance match are most commonly characterised as 
return loss. These impedance parameters are to measure value of the RF power supplied to the STB 
receiver reflects back to the antenna terminals.  
 
For efficient transfer of DTT RF signals between an antenna and STB receiver the return loss should 
be ≤ - 10 dB for 75 Ω system impedance.  
 
The indoor antenna shall have a return loss of ≤ - 10 dB.  
 
5.2.6  Antenna pattern directivity  
 
An antenna is a physical device that radiates or receives energy, almost always with some direc tional 
dependence. Theoretically, for efficient transfer of energy between 2 antennas, their respective 
radiation patterns shall be optimised in the correct direction and the antenna shall be polarised with the 
same orientation. However, where Line of Sigh t (LOS) between 2 antennas rarely exist, and at 
frequencies above about 500 MHz, objects in the path between the antennas (walls, structures, people, 
terrain, etc.) may substantially alter both the effective radiation patterns and the polarisation.  
 
Even i f a device is located in a fixed position, polarisation will typically change with time due to 
movement of nearby objects. As a result, while some general attention shall be paid to radiation pattern 
shape and antenna polarisation, these parameters can be optimised for a particular situation in only a 
general way. Since indoor reception is commonly multipath reception (Rayleigh), an omni -directional or 
slight directivity is recommended. As for information, the DTT transmitter antenna in Malaysia is using 
horizontal mode.  
 
The antenna directivity shall be measured as a minimum at the lowest, middle and highest frequency 
of the declared frequency band(s).  
 
The indoor antenna should have a near to omni -directivity pattern as shown in Figure 4. 
 
 
Figure 4. Dire ctivity antenna pattern  
  
MCMC MTSFB TC T014 :2022  
7 5.2.7  Temperature range  
 
Operating temperature range for the antenna shall be within 15 ºC to 35  ºC as stipulated ETSI EN 303 
354.   
 
An operating temperature is the temperature at which an electrical or mechanical device operates. The 
device will operate effectively within a specified temperature range which varies based on the device 
function and application context, and ranges from th e minimum to the maximum operating temperature.  
 
5.2.8  Electrostatic Discharge (ESD)  
 
The discharge of ESD can affect the correct functioning of equipment. The charge is created by the 
friction of two materials, one of which is non -conductive. ESD interference derives its strength from the 
very short rise time (up to less than 1 ns), and the short duration (typically less than 100 ns) of a pulse 
in combination with a large current or voltage.  
 
The device shall be protected with special components which leads th e charge to ground to avoid 
component damaged by ESD. Mostly the components are assembled to the input and output of the 
device.  
 
The device shall withstand contact discharges of 2 kV and 4 kV and air discharges of 2 kV, 4 kV and 
8 kV with both polarities plus (+) and minus ( -). 
 
The ESD of the antenna shall withstand contact discharges of 2 kV and 4 kV and air discharges of 2  kV, 
4 kV and 8 kV with both polarities plus (+) and minus ( -) as stipulated in IEC 61000 -4-2. 
 
 
  MCMC MTSFB TC T014 :2022  
8 Annex A  
(normative)  
 
 
Normative re ferences  
 
 
MS 589 -1, 13 A plugs, socket -outlets, adaptors and connection units - Part 1: Specification for rewirable 
and non -rewirable 13A fused plugs  
 
MS 1577, Specification for 15 A plugs and socket -outlets for domestic and similar purpose  
 
MS 1578, Specification for flat non -rewirable two -pole plugs, 2.5 A, 250 V, with cord, for the connection 
of class II -Equipment for household and similar purposes  
 
MS 2112 -5, Electric cable and wire - Polyvinyl Chloride (PVC) insulated cables of rated voltages up t o 
and including 450/750 V - Part 5: Flexible cables  
 
MS 2127 -4, Rubber insulated cables of rated voltages up to and including 450/750 V - Part 4: Cords 
and flexible cables  
 
MS IEC 60038, IEC standard voltages  
 
IEC 60227 -5, Polyvinyl chloride insulated cabl es of rated voltages up to and including 450/750 V - 
Part 5: Flexible cables (cords)  
 
IEC 60245 -1, Rubber insulated cables - Rated voltages up to and including 450/750 V - Part 1: General 
requirements  
 
IEC 61000 -4-2, Electromagnetic compatibility (EMC) Par t 4.2: Testing and measurement techniques - 
Electrostatic discharge immunity test  
 
IEC 61169 -2, Radio -frenquency connectors - Part 2: Sectional specification - Radio frequency coaxial 
connectors of type 9,52  
 
ETSI EN 303 354,  Amplifiers and active antennas for TV broadcast reception in domestic premises; 
Harmonised Standard covering the essential requirements of article 3.2 of Directive 2014/53/EU  
 
BS 1363: Part 1, 13 A plugs, socket -outlets, adaptors and connection units - Part 1: Specification for 
rewirabl e and non -rewirable 13 A fused plugs  
 
BS EN 50075, Specification for flat non -wirable two -pole plugs 2.5 A 250 V, with cord, for the connection 
of Class II -equipment for household and similar purposes  
 
BS EN 50525 -2-11, Electric cables. Low voltage energy cables of rated voltages up to and including 
450/750V (U0/U) Cables  for general applications. Flexible cables with thermoplastic PVC insulation  
 
 
 
  MCMC MTSFB TC T014 :2022  
9 Annex B  
(normative)  
 
 
Testing procedures  
 
 
B1. Antenna gain  
 
To determine the total antenna gain, the EUT is connected to the input of the network analyser through 
impedance matching (see Figure B1). The gain flatness can be determined after gain measurement is 
completed.  
 
In order to measure the field strength of the calibrated reference antenna, the followin g steps shall be 
followed:  
 
a) Arranged all devices as illustrated in Figure B1.  
 
b) Both antenna shall be connected to the network analyser which generates a sweep in the 
frequency range the EUT is specified.  
 
c) The transmit antenna will transmit the signal to the reference antenna with a fixed distance e.g 
3 meters  
 
d) Values of the received signal which measured by the reference antenna shall be recorded.  
 
e) Replace the reference antenna with the  EUT and connect to network analyser through 
impedance matching  
 
f) Repea t steps specified in (b) until (d) 
 
 
 
Figure B .1. Antenna gain measurement   
 
 
  
MCMC MTSFB TC T014 :2022  
10 B.2. Noise figure (amplifier)  
 
To determine the noise figure of the amplifier a measurement setup which consist of spectrum analyser 
and noise source as illustrated in Figure B.3 shall be arranged.  
 
In order to measure the noise figure, the following steps shall be followed:  
 
a) Calibrate the measurement setup.  
 
b) Connect a noise source with a calibrated noise figure to the spectrum analyser.  
 
c) The frequency shall be set in the oper ating frequency range of the antenna.  
 
d) Measure the noise level.  
 
e) The noise source shall be connected to the input of the amplifier.  
 
f) A sweep shall be made in the same frequency range as in step (c). 
 
Note: The added noise in the circuit is the noise level of the amplifier EUT. 
 
g) All measurements shall be recorded.  
 
 
 
Figure B .2. Noise measurement  
 
B.3. Output 3rd Order Intercept Point (OIP3)  
 
To determine the OIP 3 of the amplifier, a measurement setup which consist of 2 units of signal 
generator, 2 units of 10 dB attenuator, a 20 dB attenuator, combiner and spectrum analyser as 
illustrated in Figure B .4 shall be arranged.  
 
In order to measure the noise figure, the following steps shall be followed:  
 
a) Connect the outputs of two RF signal generators with a combiner after passing through a 10 dB 
attenuator. The attenuator is necessary to avoid coupling between the RF signal generators.  
 
b) The combiner’s output shall be co nnected to the amplifier’s EUT input.  
 
c) The EUT shall be connected to the spectrum analyser through a 20 dB attenuator to protect the 
spectrum analyser against overloading.  
 
d) Set the RF signal generators to 1 MHz spacing (i.e. if signal generator 1 is at 500  MHz, then signal 
generator 2 shall be set at 501  MHz).  
 
e) The amplified carriers with the IM products will be displayed on the analyser’s screen.  
 
f) The software in the equipment will provide the value of OIP 3 on the screen.  
To get an overview of the OIP 3 for the whole frequency band, it shall be measured in steps of 50 MHz . 
MCMC MTSFB TC T014 :2022  
11  
 
 
Figure B .3. OIP 3 measurement  
 
B.4. Return loss  
 
In order to measure the return loss, the following steps shall be followed:  
 
a) Connect the antenna to a network analyser with built -in voltage  or Vertical Standing Wave Ratio  
(VSWR) bridge.  
 
b) The measuring port shall be first calibrated.  
 
c) It shall be set to “Open”, “Short” and a “Load”.  
 
d) The impedance of the load shall be matched with the impedance of the antenna . 
 
e) Measure the return loss of the antenna after calibrating the setup.  
  
 
 Acknowledgements  
 
 
Members of the Multimedia Broadcast Receiver Sub Working Group  
 
Ts Mazlan Mahdi  (Chairman)  MYTV Broadcasting Sdn Bhd  
Ms Syaida Syarafina Sohaimi  (Vice Chairman)  SIRIM Berhad  
Ms Hafizah Zainal Abiddin (Draft lead)  SIRIM Berhad  
Ts Mohammad Hafiz Halal /  Malaysian Technical Standards Forum Bhd  
Mr Muhaimin Mat Salleh  (Secretariat)   
Mr Sharad Sadhu  Fraunhofer IIS  
Mr Mohd Suhairi Mohd Noor  LG Electronics (M) Sdn Bhd  
Dr Mun Wai Yuen  Maxis Broadband Sdn Bhd  
Mr Adrian Van Win Sen  / Measat Broadcast Network System Sdn Bhd   
Mr Mohamad Isa Mohd Razhali  /  
Mr Sheikh Azhar  Sheikh Razak   
Dr Ahmad Zaki Mohd Salleh  / Media Prima Berhad  
Mr Asri Abd Rahman  /  
Ms Imaliana Muzni  /  
Mr Mohd Sharil Duki   
Ir Dr Lim Heng Siong  Multimedia University (MMU)  
Mr Mohd Khairul Abdul Kadir  / MYTV Broadcasting Sdn Bhd  
Mr Shamsul Najib Mohtar   
Mr Navin Kumar  / Samsung Malaysia Electronics (SME) Sdn Bhd  
Mr Zainuddin Mohd Zainon   
Mr Chin Ket Ming  Sharp Electronics (M) Sdn Bhd  
Mr Al Hafiz  Abu Bakar  / SIRIM Berhad  
Ms Norhanisah Mohd Basri  /  
Ms Nurhafenah Abdul Jalil  /  
Mr Zul Jaafar   
Mr Bertrand Pennachio  / SmarDTV Global S.A.S  
Mr Erik Gazzoni   
Mr Muhd Kamarul Hafiz Mohd Tang  /  Sony EMCS Malaysia Sdn Bhd  
Mr Stephen Anthony Cleary   
Mr Najib Fadil Mohd Bisri @ Bisri Telekom Malaysia B erhad  
Mr Low Wei Yap  Wideminds Pte Ltd  
 
 
  
 By invitation:  
 
Ts Amirah Jaafar Mad Ariff /  Jabatan Penyiaran Malaysia  
Mr Karim Sadiran /   
Ts Khairuddin Hj Osman /   
Ms Norhanim Yahya /   
Mr Wan Ariffin Wan Hussin   
Mr Mohd Fakhruzzaman Mohd Noor / Smart Digital International Sdn Bhd  
Mr Sallehuddin Wagimen    
Mr Mohamad Hafizal Mohamed Ariffin  Al Hijrah Media Corporation