Oil storage tanks can pose severe threats to the operational and budgetary decisions, as owners must ensure emergency response against sudden fire breakout.

Although the chances of fire outbreaks in such tanks are relatively low, destruction of the production facility, business interruption, and environmental impact are not unheard of.
To avoid such destruction, it's essential for firm and factory owners to opt for fire protection and emergency response guidance. These options primarily include prescriptive codes and standards.
According to experts, prescriptive codes and standards provide facility owners or operators with useful information.
However, these exclude crucial site-specific factors that play a critical role in helping firms, or factory owners decide how to protect the oil storage tanks.
These factors primarily include but are not limited to, onsite risk, offsite risks, site location, public relations, business continuity, economic loss, corporate risk tolerance, and environmental impact.
It's to be noted that prescriptive codes are not considered as known factors that are essential for protecting the crude oil facility.
These include thermal radiation levels emitted from a full surface tank fire, local emergency response capabilities and limitations, and Boilover time.
Since prescriptive codes and standards alone don't succeed in protecting crude oil storage facilities, the best strategy is to follow risk-based or performance-based criteria.
Here are a few time-tested techniques
1. Passive Protection – Disallowing fire-fighting activities and ensuring the stored fuel is allowed to burn out without any intervention.
2. Defensive – Cooling the surrounding exposures (this includes tanks, process equipment, and structures) to prevent escalation and allow the tank to burn out.
3. Offensive – Attempt to extinguish the fire using fire protection systems or mobile applications.

Modern-day above-ground storage tanks have several safety features installed. Some industry-standard systems include
1. Fixed Foam System – This system consists of foam concrete bladder tanks or atmospheric tanks and foam delivery devices located at the top of the tank (foam pourers or foam chambers)
2. Semi-Fixed System – This system uses mobile apparatus for injecting foam to delivery devices located at the top of the tank.
3. Hybrid Suppression Systems – This utilizes a foam delivery device to apply foam to the walls of the tanks, as well as a foam stream to the middle of the tank.
Owing to its success rate, risk-based fire protection is viewed as a far superior approach. Since it takes into account site-specific variables and hazards modeling, firm owners are now rapidly adopting this strategy.
However, they must ensure that the designs for fire protection systems near crude storage terminals abide by the National Fire Protection Act 11. This will guarantee that the system is potent to handle Boilover and sudden fire breakouts.
So, here was our in-depth guide on fire protection in oil storage tanks. Let us know in the comment section the measures you've taken in your firm or factory to prevent fire hazards. Also, do share your feedback and let us know if we haven't discussed something important.
In addition to storage tanks, GNEE also offers more high-quality products, such as shell-and-tube heat exchangers, copper heat exchangers, titanium heat exchangers, heaters, chlorine coolers, high-pressure reactors, LPG storage tanks, cryogenic storage tanks, VPSA oxygen generators, etc. If you are interested in the above products or other products, please feel free to send an email to sales@gneeheatex.com, and our professional team will be happy to answer your questions.
GNEE STORAGE TANK
|
TYPE |
VOLUME |
SPECIFICATION |
DESIGN CODE |
|
|
Inside shell |
Outside Shell |
|||
|
Vertical |
5 |
φ1400X3672X6 |
φ1900X5115X8 |
ASME/PED |
|
Vertical |
φ1400X3672X8 |
φ1900X5115X8 |
ASME/PED |
|
|
Vertical |
10 |
φ1700X4705X6 |
φ2200X6035X8 |
ASME/PED |
|
Vertical |
φ1700X4705X10 |
φ2200X6035X8 |
ASME/PED |
|
|
Vertical |
15 |
φ1800X6214X6 |
φ2300X7730X8 |
ASME/PED |
|
Vertical |
φ1800X6214X11 |
φ2300X7730X8 |
ASME/PED |
|
|
Vertical |
20 |
φ2100X6146X7 |
φ2600X7655X8 |
ASME/PED |
|
Vertical |
φ2100X6146X12 |
φ2600X7655X8 |
ASME/PED |
|
|
Vertical |
30 |
φ2100X9046X8 |
φ2600X10605X8 |
ASME/PED |
|
Vertical |
φ2100X9046X14 |
φ2600X10605X8 |
ASME/PED |
|
|
Vertical |
50 |
φ2600X9885X9 |
φ3200X11670X10 |
ASME/PED |
|
Vertical |
φ2600X9885X16 |
φ3200X11670X10 |
ASME/PED |
|
|
Vertical |
100 |
φ3000X14670X11 |
φ3600X16550X14 |
ASME/PED |
|
Vertical |
φ3000X14670X20 |
φ3600X16550X14 |
ASME/PED |
|
|
Vertical |
150 |
φ3200X19308X12 |
φ3800X22000X14 |
ASME/PED |
|
Vertical |
200 |
φ3400X22624X14 |
φ4000X25300X14 |
ASME/PED |
GNEE STORAGE TANK
|
TYPE |
VOLUME |
SPECIFICATION |
DESIGN CODE |
|
|
Inside shell |
Outside Shell |
|||
|
Horizontal |
5 |
φ1400X3672X6 |
φ1900X4802X8 |
ASME/PED |
|
Horizontal |
φ1400X3672X8 |
φ1900X4802X8 |
ASME/PED |
|
|
Horizontal |
10 |
φ1700X4705X6 |
φ2200X5980X8 |
ASME/PED |
|
Horizontal |
φ1700X4705X10 |
φ2200X7210X8 |
ASME/PED |
|
|
Horizontal |
15 |
φ1900X5626X6 |
φ2400X7210X8 |
ASME/PED |
|
Horizontal |
φ1900X5626X11 |
φ2400X7210X8 |
ASME/PED |
|
|
Horizontal |
20 |
φ2100X6146X7 |
φ2600X7310X8 |
ASME/PED |
|
Horizontal |
φ2100X6146X12 |
φ2600X7310X8 |
ASME/PED |
|
|
Horizontal |
30 |
φ2100X9046X8 |
φ2600X10200X8 |
ASME/PED |
|
Horizontal |
φ2100X9046X12 |
φ2600X10300X8 |
ASME/PED |
|
|
Horizontal |
50 |
φ2600X9885X8 |
φ3200X11400X10 |
ASME/PED |
|
Horizontal |
φ2600X9885X14 |
φ3200X11275X10 |
ASME/PED |
|
|
Horizontal |
100 |
φ3000X14670X10 |
φ3600X16350X12 |
ASME/PED |
|
Horizontal |
φ3000X14670X16 |
φ3600X16900X12 |
ASME/PED |
|
|
Horizontal |
150 |
φ3200X19308X10 |
φ3800X20700X12 |
ASME/PED |
|
Horizontal |
200 |
φ3400X22624X11 |
φ4000X24500X12 |
ASME/PED |
