WWS deploys temporary tank systems by evaluating the fluid type, storage volume, site access, project timeline, transfer needs, containment requirements, weather conditions, and operating environment before mobilizing equipment. Temporary deployment may include modular aboveground storage tanks, frac tanks, pumps, hoses, liners, monitoring systems, and support equipment based on project needs.
WWS Tanks provides industrial and commercial fluid storage systems, modular aboveground storage tanks, frac tank rentals, and fluid management infrastructure. We do not drill residential wells, install septic systems, or provide household plumbing services.
Why Deployment Planning Matters
Temporary tank deployment is not just delivery. A tank can arrive on time and still create problems if the site is not ready, the access road is poor, the transfer setup is undersized, the containment area is not planned, or the system does not match the fluid.
Deployment planning protects uptime. In oilfield, industrial, agricultural, manufacturing, construction, and wastewater work, delays can affect crews, production, hauling, treatment schedules, and project milestones. A well-planned deployment helps the system fit the site before the first truck arrives.
The strongest temporary storage deployments begin with the operating problem. Is the site trying to stage frac water? Hold produced water? Add wastewater capacity during maintenance? Support a dewatering project? Provide temporary cooling water? Each use case changes the tank type, capacity, transfer plan, and site layout.
For the broader cluster foundation, see Industrial Fluid Storage Systems: Modular Aboveground Tank Solutions for Industrial Operations (https://wwstanks.com/learning-center/industrial-fluid-storage/industrial-fluid-storage-systems/).
Step 1: Understanding the Project Scope
The first deployment step is defining the project. WWS needs to understand the fluid, expected volume, storage duration, project location, industry, site conditions, and timeline before the right system can be planned.
Fluid type matters because freshwater, frac water, produced water, flowback, wastewater, process water, cooling water, sludge, and dewatering water do not behave the same way. Some projects are primarily about high-volume water staging. Others are about wastewater holding, solids, treatment delays, hauling windows, or temporary containment.
Volume also matters, but volume should not be considered in isolation. A good scope includes average volume, peak volume, usable capacity, inflow rate, outflow rate, hauling frequency, treatment capacity, and buffer needs. A system that handles normal conditions may still fail during surge conditions if the scope is too narrow.
Project duration affects the rental strategy. A short emergency need may require fast mobilization. A multi-month industrial project may require more attention to monitoring, access, maintenance, weather, and removal planning. A longer project may also need flexibility if volume changes over time.
For comparison planning, see Temporary vs Permanent Industrial Storage Tanks (https://wwstanks.com/learning-center/industrial-fluid-storage/temporary-vs-permanent-industrial-storage-tanks/).
Step 2: Matching Tank Type to the Fluid and Site
The second step is matching the storage system to the fluid and site. WWS lists aboveground water storage tanks ranging from 6,000 BBL to 81,000 BBL, along with 1,000 BBL closed top frac tanks, 900 BBL open top flow back tanks, 500 BBL frac/storage tanks, and integrated remote fluid monitoring systems for tanks and pits.
A high-volume frac water or produced water project may need a large modular aboveground storage tank. A flowback project may call for different access or tank considerations. A wastewater storage project may need planning around solids, odor, transfer, hauling, and containment. A cooling water or infrastructure project may place more emphasis on uptime, staging, monitoring, and site coordination.
WWS also describes an 81,000 BBL MEGA AST tank engineered to both Canadian and U.S. specifications, with the ability to transform down to smaller AST sizes. That flexibility matters because industrial projects can change after the first deployment plan is made.
Tank selection should not be treated as a size chart decision. The right tank type depends on the fluid, volume, site footprint, access, transfer rate, storage duration, containment planning, weather, and operating risk.
For glossary reference, see Aboveground Storage Tank (AST) (https://wwstanks.com/learning-center/glossary/#aboveground-storage-tank) and Frac Tank (https://wwstanks.com/learning-center/glossary/#frac-tank).
Step 3: Reviewing Site Access and Layout
Site access is one of the most practical deployment factors. Tanks, trucks, pumps, hoses, crews, and support equipment all need room to move. A site that looks open on a map may still create problems if roads are narrow, turning radius is limited, grade is poor, drainage is weak, or nearby operations restrict movement.
WWS deployment planning should account for delivery access, staging areas, tank placement, loading areas, hose routing, pump placement, emergency access, and removal. These details affect how smoothly the system works once it is filled.
Remote locations require additional planning. Oilfield pads, agricultural sites, construction projects, and industrial facilities may face mud, snow, heat, limited roads, heavy equipment traffic, or changing work zones. If access becomes difficult after deployment, hauling and transfer can become slow or unsafe.
The best tank location is not always the closest open space. It is the space that supports capacity, transfer, containment, safety, inspection, and site movement.
For detailed planning considerations, see Engineering Considerations for Large-Scale Fluid Containment (https://wwstanks.com/learning-center/engineering-considerations-large-scale-fluid-containment/).
Step 4: Planning Transfer Equipment and Fluid Movement
Fluid movement is part of deployment. A tank system needs to be filled, monitored, transferred, emptied, and eventually removed. Pumps, hoses, manifolds, loading areas, valves, and connection points determine whether the system can keep up with the operation.
WWS states that its aboveground storage tank systems can reduce manifolding costs and reduce trip hazards from hoses used on manifolds compared with some conventional tank setups.
Transfer planning should answer practical questions. How fast will liquid enter the system? How fast does it need to leave? Will trucks load from the tank? Will water be pumped to a treatment system, frac spread, cooling system, or disposal route? Who monitors the levels? What happens if hauling is delayed?
A tank can have enough capacity and still become a bottleneck if fluid movement is not planned correctly. Transfer rate, connection points, hose routing, and truck access are deployment decisions, not afterthoughts.
For more on modular system mechanics, see How Modular Aboveground Storage Tanks Work in Industrial Operations (https://wwstanks.com/learning-center/how-modular-aboveground-storage-tanks-work/).
Step 5: Addressing Safety, Containment, and Site Requirements
Safety and containment should be addressed before mobilization. Temporary does not mean low-risk. A temporary tank system may hold large industrial volumes and sit near active equipment, truck traffic, drainage areas, production zones, or worker pathways.
Secondary containment is a backup layer designed to help control liquid if the primary tank, hose, valve, fitting, or transfer point fails. It may include liners, berms, double-wall systems, containment areas, or other site-specific controls.
EPA explains that facilities with aboveground storage tanks holding oils of any kind may be subject to Spill Prevention, Control, and Countermeasure requirements under 40 CFR Part 112, depending on applicability. OSHA identifies storage tank hazards in petroleum and petrochemical settings including fire or explosion, asphyxiation, toxicity, entrapment, falls, steam, heat, noise, cold, and electrical shock.
https://www.epa.gov/ust/aboveground-storage-tanks
https://www.osha.gov/storage-tanks/hazard-solutions
These sources do not mean every WWS deployment has the same requirements. They do mean buyers should verify site-specific requirements before storing industrial liquids.
For deeper safety guidance, see Industrial Fluid Management Safety Standards (https://wwstanks.com/learning-center/industrial-fluid-storage/industrial-fluid-management-safety-standards/).
For glossary reference, see Secondary Containment (https://wwstanks.com/learning-center/glossary/#secondary-containment).
Step 6: Mobilizing Equipment to the Site
Mobilization is where planning turns into field execution. Equipment must be scheduled, loaded, transported, staged, and delivered in the right order for setup. On active industrial sites, timing matters because the storage system may need to fit around crews, production, trucking, or other contractors.
WWS states that companies across the United States and Canada have used its solutions, and its aboveground storage tank page says WWS serves customers coast to coast in various industries.
Regional logistics can change deployment planning. A winter project in North Dakota, Wyoming, Pennsylvania, or Alberta may require different access and weather planning than a hot-weather project in Texas or Louisiana. Remote oilfield deployment may require different mobilization than a food processing facility or municipal utility site.
The goal is not simply to deliver tanks. The goal is to deliver the right equipment in a sequence that allows the system to be set up safely, filled efficiently, operated reliably, and removed when the project ends.
Step 7: Setting Up the Tank System
Setup begins with the prepared area. The site should be suitable for the tank system, transfer equipment, containment planning, and access needs. If the setup area is not ready, deployment can slow down before the tank is even assembled.
WWS states that its aboveground storage tank systems include engineered and stamped plans for Wyoming, Colorado, North Dakota, New Mexico, Texas, and Alberta, Canada. WWS also states that its patented designs are intended for fast and safe erection, that ASTs are designed to be set up with one telehandler and a man lift, and that only experienced WWS crews set up and tear down its tanks due to liability issues.
Depending on the project, setup may include liner protection, tank assembly, covers, access points, connection points, monitoring systems, pumps, hoses, and containment coordination. WWS describes options such as geotextile under the liner, foam insulated sidewalls, insulated floating covers, and geo floor liners for colder climates.
Fast setup is valuable, but speed only helps when the system is planned correctly. A fast deployment still needs the right tank, correct placement, clear access, transfer coordination, and operating responsibility.
Step 8: Supporting Operation, Scaling, and Removal
Deployment does not end when the tank is standing. The system still needs to be operated, monitored, adjusted, and eventually removed. Temporary fluid storage is active infrastructure during the entire project.
WWS lists integrated remote fluid monitoring systems for tanks and pits among its services. Monitoring can help operators understand available capacity, coordinate hauling, and respond when flow conditions change.
Scaling may also be needed. A project may need more storage if flow increases, treatment is delayed, weather interrupts hauling, or the timeline extends. A modular storage system can support changing demand when the site and transfer plan allow for expansion.
Removal should be planned before the end of the project. The team should know how the tank will be emptied, how equipment will be accessed, what removal sequence is needed, and whether the site must transition into another phase of work.
Deployment Challenges by Industry
Different industries create different deployment challenges. A tank system may look similar from the outside, but the deployment plan should change with the fluid, site, and operating schedule.
| Industry | Deployment Challenge | WWS Planning Priority |
| Oil and gas | Remote pads, high-volume water, produced water, flowback, changing schedules | Capacity, transfer rate, access, weather, field logistics |
| Poultry processing | Washwater, sanitation liquids, high-flow cleaning periods | Peak volume, hauling access, odor, treatment timing |
| Dairy and agriculture | Seasonal needs, rural access, lagoon or holding constraints | Road conditions, hauling windows, site placement |
| Food and beverage | Process wastewater and maintenance-related holding | Flow timing, sanitation schedules, treatment interface |
| Industrial manufacturing | Process liquids, rinse water, cooling water, busy facilities | Fluid compatibility, site footprint, production continuity |
| Sludge and biosolids | High-solids liquid, settling, cleaning, hauling | Access, solids handling, tank selection |
| Construction and dewatering | Stormwater, groundwater, changing work zones | Pump rate, sediment, drainage, truck movement |
| Data centers | Cooling support, commissioning, backup planning | Reliability, site coordination, uptime sensitivity |
| Municipal and utility | Repair, bypass, maintenance, public infrastructure work | Continuity, access, response planning |
| Environmental remediation | Impacted water, testing, uncertain volume | Containment, sampling, hauling coordination |
This is why WWS deployment planning should start with the industry and the operating problem, not just the desired tank size.
For more industry context, see What Industries Use Modular Fluid Storage Systems? (https://wwstanks.com/learning-center/industries-that-use-modular-fluid-storage-systems/).
Regional and Weather Considerations Across North America
North American deployment requires flexible planning because field conditions change by region and season. Cold, heat, mud, snow, rain, wind, road restrictions, remote access, and local site rules can all affect temporary tank deployment.
Cold-weather projects may require more attention to access, insulation, covers, heat retention, and transfer reliability. WWS describes foam insulated sidewalls, insulated floating covers, and geo floor liners for colder climates.
Oilfield regions such as Pennsylvania, the Dakotas, Texas, Wyoming, Louisiana, and Alberta can present very different deployment realities. A site in a northern basin may face freeze conditions and winter road access. A Texas or Louisiana project may place more emphasis on heat, rain, storms, or soft ground. These differences affect scheduling, staging, safety, and system design.
Good deployment planning does not assume every site behaves the same. It adjusts to the region, season, weather, industry, access conditions, and project timeline.
Common Deployment Mistakes to Avoid
The first mistake is assuming deployment means delivery. Delivery only gets equipment to the site. Deployment includes planning, placement, setup, transfer coordination, containment, operation, scaling, and removal.
The second mistake is waiting too long. Last-minute requests can reduce equipment options, compress site preparation, complicate trucking, and increase downtime risk.
The third mistake is failing to define the fluid. Tank type, transfer equipment, containment planning, and cleaning considerations all depend on what is being stored.
The fourth mistake is underestimating site access. Poor roads, tight turns, mud, snow, congestion, and limited staging areas can slow setup and operation.
The fifth mistake is ignoring teardown. Removal is easier when the tank system was placed with emptying, access, and demobilization in mind.
For a full mistake-prevention guide, see Common Mistakes When Renting Industrial Storage Tanks (https://wwstanks.com/learning-center/industrial-fluid-storage/common-mistakes-renting-industrial-storage-tanks/).
How to Prepare Before Contacting WWS
The most useful project information includes the fluid type, expected volume, peak volume, project location, timeline, storage duration, site access, transfer method, treatment or hauling plan, and containment requirements.
Buyers do not need every detail solved before contacting WWS. In many cases, the reason to contact WWS early is to identify which details matter most. Early conversations help avoid mismatched equipment, access problems, capacity gaps, or rushed deployment decisions.
Helpful information to gather includes:
| Project Detail | Why It Helps |
| Fluid type | Helps determine tank type, compatibility, and transfer needs |
| Expected volume | Helps estimate storage capacity |
| Peak volume | Helps plan for surge conditions |
| Location | Helps assess logistics, weather, and mobilization |
| Timeline | Helps coordinate equipment and setup |
| Site access | Helps identify delivery, staging, and truck movement needs |
| Transfer plan | Helps size pumps, hoses, and loading areas |
| Containment needs | Helps plan release prevention and site controls |
| Hauling or treatment plan | Helps prevent capacity bottlenecks |
To discuss deployment needs, visit WWS Tank Services (https://wwstanks.com/services/) or Contact WWS Tanks (https://wwstanks.com/contact/).
Key Takeaways
Temporary tank deployment is planning, logistics, setup, operation, scaling, and removal.
Tank type depends on the fluid, volume, site, timeline, transfer needs, weather, and containment requirements.
Site access matters. Roads, staging areas, turning radius, drainage, truck movement, and active operations can affect deployment success.
Transfer planning prevents bottlenecks. Pumps, hoses, manifolds, loading areas, and monitoring should be planned before the system is active.
Safety and containment planning should happen early, not after the tank is filled.
WWS Tanks supports industrial and commercial temporary tank deployment across North America. We do not drill residential wells, install septic systems, or provide household plumbing services.
