P.G Tosan Data Centers Development Co.



The ANSI/TIA-942 is a quality standard for data centers. The standard specifies requirements for data centers including single tenant enterprise data centers and multi-tenant Internet hosting data centers. The topology presented in the standard is applicable to any size data center and covers all physical infrastructure including, but not limited to, site location, architectural, electrical, mechanical, fire safety, telecommunication, security and other requirements.

Data centers can be reviewed and certified for conformity to the requirements of the ANSI/TIA-942 standard.


Data Center Design and Implementation Best Practices

Data center construction and expansion is predicted to continue steadily worldwide.

With the increasing focus on reliability and efficiency, the initial design is more important than ever. Thus, professionals within data center design are required to have knowledge of mechanical, electrical and telecommunications systems and how they support the network and network equipment in the data center’s core.

ANSI/BICSI 002-2014, BICSI’s international best-seller, covers all major systems found within a data center. Written by industry professionals from all major disciplines, this standard not only lists what a data center requires, but provides ample recommendations on the best methods of implementing a design to fulfill your needs.


As the foundation standard for data center design, BICSI 002 features 17 chapters and 8 appendices, spread over 500 pages, covering the following and more:

  • Design methodology
    • Facilities, cabling, network, services and applications
    • Data center service outsourcing
  • Site selection and space planning
    • Modular and “container” data centers
    • Site services and hazards
  • Building structural and architectural requirements
  • Electrical systems
    • Utility to ITE power systems
    • Standby and backup power systems
    • DC power
    • Mechanical systems
    • Security and fire
      • Architectural, electronic and operational security
      • Fire safety for chimneys and aisle enclosures
    • DCIM and building systems
    • Telecommunications infrastructure
      • Hot and cold aisles
      • Cabinet airflow and cabling capacity
    • Network infrastructure
    • Data center commissioning & maintenance
    • Energy efficiency
    • Multi-site data center architecture


American Society of Heating, Refrigerating, and Air-Conditioning  Engineer

2008   ASHRAE   Environmental    Guidelines   for   Datacom   Equipment-Expanding  the   Recommended Environmental  Envelope

•ASHRAE 52.2-2007,  Method of Testing General Ventilation  Air-Cleaning  Devices for Removal Efficiency by Particle Size;

•ANSI/ASHRAE/IESNA 90.1-2007,  Energy Standard for Buildings Except Low-Rise Residential  Buildings;

ASHRAE Handbook- Fundamentals

ASHRAE Handbook- HVAC Applications

ASHRAE Handbook-HVAC Systems and Equipment

•Herrlin, M. K. 2005. Rack Cooling Effectiveness in Data Centers and Telecommunications Central Offices: The Rack Cooling Index (RCI). ASHRAE Transactions, Volume 111, Part 2•    Herrlin, M. K.. and Belady, C. 2006. Gravity-Assisted  Air Mixing in Data Centers  and How it Affects the Rack Cooling Effectiveness. ITherm 2006, San Diego, CA, May 30-June 2, 2006


Institute of Electrical and Electronics Engineers 

• ANSI/IEEE C2-2007, National Electrical Safety Code (NESC);

•IEEE C62.72-2007,  IEEE Guidefor the Application  of Surge-Protective  Devicesfor Low-Voltage  (1000 V or Less) AC Power Circuits;

•IEEE 446-1995  (Revision  2000)  (The  IEEE  Orange  Book),  Recommended  Practice  for Emergency  and Standby Power Systems for Industrial and Commercial Applications;

•IEEE 485-1997,  IEEE Recommended Practicefor Sizing Lead-Acid Batteries/or Stationary Applications;

•IEEE 902-1998 (The IEEE Yellow Book), Guide for Maintenance,  Operation and Safety of industrial and Commercial Power Systems;

•IEEE   1013-2007,   IEEE   Recommended    Practice   for   Sizing   Lead-Acid   Batteries   for   Stand-Alone Photovoltaic (PV) Systems;

•IEEE  1145-1999,  IEEE  Recommended   Practice  for  Installation  and  Maintenance   of  Nickel-Cadmium Batteriesfor Photovoltaic (PV) Systems (withdrawn standard);

•IEEE 1375-1998, IEEE Guidefor the Protection of Stationary Batteries;

•IEEE/ASHRAE  1635/200,  Guide  for  the  Ventilation  and  Thermal  Management  of Stationary  Battery Installations (under development)


National Fire Protection Association

•NFPA 90A-2009, Standardfor the Installation of Air-conditioning  and Ventilating Systems;

•NFPA 101-2009, Life Safety Code;

•NFPA 110-2010; Standard for Emergency and Standby Power Systems;

•NFPA 111-2010; Standard on Stored Electrical Energy Emergency and Standby Power Systems;

•NFPA 258-2001,  Recommended Practicefor Determining Smoke Generation of Solid Materials;

•NFPA 5000-2009,  Building Construction and Safety Code

•NFPA Fire Protection System for Special Hazards, 2004;


Telecommunication Industry Association

• ANSI/TIA-455-57-B,  FOTP-57,  Preparation   and  Examination   of  Optical  Fiber  Endface  for  Testing Purposes

•ANSI/TIA-455-133-A, FOTP-133-IEC-60793-1-22, Optical Fibres-Part  1-22: Measurement  Methods and Test Procedures-Length Measurement

•ANSI/TIA-526-7,  OFSTP-7,  Measurement  of Optical  Power  Loss  of Installed  Single-Mode  Fiber Cable Plant

•ANSI/TIA-568-C.O, Generic Telecommunications Cablingfor Customer Premises

•ANSI/TIA-568-C.1, Commercial  Building Telecommunications Cabling Standard (2009);

•ANSI/TIA-568-C.2,  Balanced   Twisted-Pair   Telecommunications  Cabling   and   Components   Standard (2009);

•ANSI/TIA-568-C.3, Optical Fiber Cabling Components Standard (2009);

•ANSI/TIA-758-A,  Customer Owned Outside Plant Telecommunications Infrastructure  Standard (2004);

•ANSI/TIA-942-1,  Data Center Coaxial Cabling Specifications  and Application Distances (2008)