CAMPS · GLAMPING · TEMPORARY FACILITIES

Reliable water.
Ready for changing demand.

Build water production around the real mobilization plan: source quality, occupancy stages, storage, utilities, access and the service that must remain available.

APPLICATION ROUTEPHASED SITE WATER SUPPLY
SEAMASTER containerized desalination plant suitable for engineered camp and temporary-site water supply
DEPLOYMENT-LED DESIGNSOURCE · PHASES · STORAGE · INTERFACES
Source verifiedSEAWATER OR BRACKISH
Phased demandOPENING TO PEAK
Storage definedPEAKS + INTERRUPTION
Site readyACCESS + UTILITIES
Engineering gateFINAL CONFIGURATION
QUICK ANSWER04

Size the service by phase, not by the final headcount alone.

Opening duty, occupancy ramp, peak operation and the later expansion or exit plan can require different operating combinations. The approved daily-demand schedule and available production hours remain the basis.

Review the phases

CAMP DESIGN BASIS

Six realities before selecting equipment.

Resolve the changing site duty first; then compare the verified DESAL routes.

01

Occupancy curve

Separate staff, guests, contractors and peak occupancy by project phase instead of relying on one headline population.

02

Source quality

Confirm seawater or brackish-water chemistry, source yield, turbidity, temperature and seasonal variation before routing equipment.

03

Deployment schedule

Align commissioning, occupancy ramp-up, peak operation, expansion and any later relocation with the required water service.

04

Storage strategy

Use treated-water storage to separate stable RO production from short demand peaks and defined interruption coverage.

05

Utilities

Verify available voltage, frequency, connected load, backup philosophy, feed-water pumping and communications at every stage.

06

Access & service

Transport limits, lifting, civil readiness, consumables, chemicals, operator access and demobilization affect the delivery format.

DAILY DEMAND WORKSHEET

Count every water stream once.

Use owner-approved consumption data, equipment duties or measured values. SEAMASTER does not impose a universal litres-per-person allowance.

Demand streamBuild the quantity fromProject input to verify
Accommodation & sanitaryOccupied beds, staff shifts and actual operating schedulePeak occupancy and fixture profile
Kitchen & cateringMeals, food preparation, washing and hygiene dutyKitchen operating periods and final-water requirement
Laundry & cleaningOn-site or outsourced laundry plus housekeeping cycleEquipment data and cleaning schedule
Staff & administrationPermanent teams, visitors, offices and shared facilitiesShift pattern and non-resident users
Cooling, landscaping or worksOnly uses that genuinely require desalinated waterWater quality, seasonal duty and alternative sources
Reserve & interruption coverOwner-defined service requirement, not a universal percentageAccepted outage and usable storage volume

Capacity rule: total approved daily demand ÷ realistic production hours, adjusted only by the agreed reserve. Instantaneous taps and showers are normally served through the distribution and storage design, not by an invented RO peak factor.

Camp Desalination Sizing GuideFull method · demand worksheet · storage · verified routes

SEAMASTER PLATFORM PATH

Choose by source, duty and deployment format.

These published ranges are routing boundaries. Final capacity, recovery, energy use, treatment scope and performance require the current water analysis and approved project duty.

Review product data
01
Verified brackish water

DESAL-BWRO Q / XP / KP

22.5–2,500 L/h

Camp wells or boreholes where the measured feed fits a published BWRO configuration and source yield supports the duty.

Explore platform
02
Seawater catalog route

DESAL-SWRO PM / PM-C

62.5–1,250 L/h

Compact seawater production for smaller facilities or distributed production points with project-defined site interfaces.

Explore platform
03
Project-verified seawater

DESAL-SWRO XL

36–600 m³/day

Engineered camp or workforce-site supply where pretreatment, availability, controls and phased expansion require one plant design.

Explore platform
04
Project-verified seawater

BOX DESAL SWRO

100–1,200 m³/day

Containerized delivery where factory integration, transportable modules and reduced site assembly support the deployment plan.

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PHASED WATER ARCHITECTURE

Make each operating stage explicit.

Phase gates keep demand, shared equipment, storage and site readiness aligned with the actual deployment plan.

01Opening duty

Define the first occupied facilities, essential services, commissioning water and the initial source and storage interfaces.

02Occupancy ramp

Add accommodation, catering, laundry and staff demand according to the actual mobilization sequence.

03Peak operation

Verify the highest simultaneous duty, operating hours, storage turnover and required production availability.

04Expansion or exit

Plan later capacity, permanent conversion, module relocation or demobilization without assuming a fixed project outcome.

Expansion rule: do not assume that nominal capacities can simply be added. Verify shared pretreatment, pumps, post-treatment, controls, storage and the required output with one train unavailable.

SITE-READINESS INTERFACES

The plant is only ready when the site is ready.

Define every connection at the agreed delivery boundary. Temporary infrastructure still needs an approved source, power, drainage, access and operating plan.

Open engineering calculators
Source interface

Intake or well, feed pumping, source yield, feed tank and seasonal operating boundary.

Electrical interface

Voltage, frequency, connected load, backup source, starting philosophy and power quality.

Product-water interface

Usable storage, post-treatment, distribution pressure, turnover and sampling points.

Concentrate interface

Approved discharge route, hydraulics, environmental requirements and monitoring.

Civil interface

Foundations, drainage, weather protection, access, lifting and maintenance clearances.

Operations interface

Controls, alarms, communications, chemicals, consumables, operators and service support.

SEAMASTER reverse-osmosis equipment for engineered camp and temporary-site projectsPROJECT DATA · VERIFIED BEFORE SELECTION

DATA FOR CONCEPT DESIGN

Send the site plan and operating phases.

Camp type, location, access and deployment scheduleCurrent source-water analysis and source-yield dataOccupancy and water-use schedule for every phaseRealistic production hours, usable storage and accepted outageRequired product-water quality and all final usesIntake or well, concentrate discharge and civil interfacesPower supply, backup philosophy and communicationsPlans, photographs, lifting limits and future relocation requirement
Talk to an engineer

CAMP & TEMPORARY-SITE FAQ

Answers before concept design.

01Can a camp desalination plant be sized only from the number of people?

No. Occupancy must be combined with the actual accommodation, sanitary, catering, laundry, cleaning, staff and other water uses. Operating hours, storage and the accepted interruption also affect the required production capacity.

02What daily water allowance should be used per person?

There is no universal value on this page. The project owner should provide the design basis or measured consumption for the specific camp standard, climate, fixtures, catering, laundry and operating rules. SEAMASTER then converts the approved daily demand into a production duty.

03Can the plant be expanded as occupancy grows?

A phased architecture can be assessed, but train count, shared pretreatment, pumping, storage, controls and site interfaces must be designed for the approved expansion case. This page does not assume that every catalog unit can be combined without engineering review.

04Is containerized delivery automatically the best option for a temporary site?

No. BOX DESAL can reduce site assembly and define delivery boundaries, but road access, lifting, foundations, intake, discharge, storage, utilities and the future relocation plan still determine the appropriate format.

05Can temporary power be connected directly to the RO equipment?

The electrical design must verify voltage, frequency, power quality, available load, starting behavior, protection, backup philosophy and restart sequence. Final requirements come from the selected system and approved site power study.

READY TO PLAN THE CAMP WATER SYSTEM?

Send the source, occupancy phases and site interfaces.

We will identify the correct DESAL route and the remaining inputs required for a project-specific concept.