AmeriPro Environmental ServicesMODULAR INFRASTRUCTURE / CONCEPT DOCUMENTS

AmeriPro Flood Response Team — Design Development

Revision B concept supplement · November 7, 2026 · Jeff Ricks

This supplement advances the Revision A design basis with candidate packaging and load allocations. It does not supersede the original mission boundaries. Open the interactive design studio to inspect zones and vary mass / power assumptions.

Dimensions, quantities, loads and masses are design allocations pending supplier data. The Revision A cost schedule has not yet been reconciled with these architectures.

1. Candidate architectures

Continuation: Revision C deployment and controls adds a proposed site arrangement, connection schedule and functional cause-and-effect review. Open the interactive deployment viewer.

Design itemMFP-500DryForce
Proposed configurationDiesel-driven, prime-assisted solids-handling pump packageDesiccant drying package; electric regeneration used for initial power study
Nominal equipment body / deck20 ft long × 8 ft 6 in external width24 ft long × 8 ft 6 in external width
Overall road dimensionsTBD; body length excludes tow connectionTBD; body length excludes tow connection
Proposed loaded mass ceiling9,500 lb12,000 lb
Initial allocated mass8,250 lb10,600 lb
Unallocated design reserve1,250 lb1,400 lb
Access reservation30 in nominal longitudinal service strip30 in nominal longitudinal service strip
Trailer structure / running gearSupplier selection after load distribution studySupplier selection after load distribution study

The loaded mass ceilings are project targets; the plated GVWR must cover them. Licensing: MFP-500's 9,500 lb ceiling fits under a 9,990 lb GVWR, so it tows without a CDL like the MWTP-50C. DryForce's 12,000 lb ceiling puts it over 10,000 lb, which means Class A CDL drivers behind a typical 1-ton pickup (49 CFR 383.91: a towed unit over 10,000 lb GVWR in a combination rated 26,001 lb or more requires a Class A CDL; typical 1-ton pickups carry a manufacturer GCWR above 26,000 lb). Holding DryForce to 9,990 lb would need about 610 lb removed from its current 10,600 lb allocation; otherwise plan staffing around CDL drivers. Door openings, wall thickness, structural intrusions, personnel access and service clearances reduce usable equipment space. The service strip is a layout reservation, not an asserted compliant aisle dimension.

2. MFP-500 arrangement

Longitudinal stations are measured from the front of the equipment deck, excluding the tow connection.

StationAllocationDesign content
0–4 ftDrive / fuel zoneFuel fill and service access, cooling / exhaust provisions
4–13 ftPump / controls zonePump, priming, local panel, pressure / vacuum indication and service access
13–20 ftHose deployment zoneHose baskets, screen, couplings and tools

A combined pump / engine skid may span the first two zones. The pump inlet / outlet locations determine the final hose and instrument arrangements.

Hydraulic study case

Use 500 GPM at 40 ft total dynamic head as a candidate comparison point for soliciting supplier curves, with 6 in nominal suction / discharge hoses as an initial routing study. Neither value establishes a rated duty point or permissible suction lift. The mission calculator's 500 GPM value remains an independent illustrative input.

For this study point, water hydraulic power = Q × H ÷ 3,960 = 500 × 40 ÷ 3,960 = 5.05 HP. At an assumed pump efficiency of 55%, shaft power would be 9.18 HP. Efficiency is unknown until equipment is selected; this calculation is not an engine rating recommendation. Priming, speed, transmission, operating envelope, accessory loads and engine derating must also be reconciled.

Total dynamic head must include the applicable static head and line / fitting losses. Xylem's selection guide describes static suction, static delivery and friction loss as components of generated head. Its installation manual requires checking available against required NPSH using the selected pump curve. This study does not calculate those quantities or demonstrate that the proposed hose will achieve the target duty.

Conceptual water path: screened intake → vacuum-rated suction assembly → P-1101 → instrumented discharge / engineered valve arrangement → restrained hose → authorized receiving point. The valve and protection arrangement is to be specified with the selected pump supplier.

Loaded mass allocations

Component groupAllocation, lb
Trailer / structure3,000
Pump + engine package, including normal service fluids but excluding fuel2,600
Full fuel / tank package500
Hoses / screen / couplings, including retained water allowance950
Controls / instruments300
Tools / field kit250
Mounts / guards / integration650
Allocated loaded mass8,250
Reserve to 9,500 lb design ceiling1,250

No water-storage tank is allocated. The fuel allocation does not establish tank capacity or runtime. Obtain supplier masses, centers of gravity and a complete cargo schedule before positioning the axle group or specifying the coupler.

3. DryForce arrangement

The desiccant option is a candidate for development, not a completed technology comparison. Refrigerant or hybrid alternatives remain open until ambient conditions, moisture load, electrical supply and commercial duty are defined.

StationAllocationDesign content
0–6 ftPower / service bayCandidate generator, power distribution, fuel access and engine service
6–17 ftDrying equipment bayDesiccant package, process / regeneration paths and filter service
17–24 ftField-kit bayDucts, air movers, monitoring instruments and deployment access

Propose two 20 in nominal process-air connections as layout placeholders, one supply and one return. Airflow is not rated by duct diameter: establish the vendor airflow at the required external static pressure, then size the complete distribution system. Regeneration inlet and wet-air outlet are separate, supplier-sized connections.

Air and moisture interfaces

The process path returns building air to the drying module and supplies dry air to the designated drying zone. The regeneration path heats a separate airstream and expels its collected moisture outdoors. Engine exhaust, if onboard power is used, is a third distinct exhaust stream.

Munters' desiccant-system information identifies electric, gas and steam regeneration options. Its handbook discusses how inlet conditions, regeneration heat and air leakage affect performance. Therefore the electric load study below is one architecture assumption; it does not establish removal capacity, outlet dew point or a drying-time guarantee.

Initial connected-load allocation

Load groupQuantity basisReal-power allowance
Electric regeneration heat1 staged heater allowance12.0 kW
Process fan1 allowance3.0 kW
Regeneration fan1 allowance1.0 kW
Distributed air movers8 × 0.4 kW assumed3.2 kW
Controls1 allowance0.3 kW
Lighting / auxiliary1 allowance0.2 kW
Connected real power19.7 kW
Planning envelope with 25% reserve19.7 × 1.2524.625 kW

No simultaneity reduction is applied. The studio combines the two fans into a 4.0 kW input and controls / lighting into a 0.5 kW input. The reserve is arithmetic headroom, not a demonstrated generator transient margin. Select voltage, phase, generator kW / kVA, grounding, distribution, motor-start strategy, protection and shore / generator switching through a separate electrical design. No conductor sizes or connection instructions are supplied here.

The allocated 1,800 lb generator / power mass must be revisited after power selection. A load allocation and a mass allocation do not prove a compatible package exists.

Loaded mass allocations

Component groupAllocation, lb
Trailer / enclosure3,600
Drying module package2,400
Generator / power package, including normal service fluids but excluding fuel1,800
Ducts / air movers900
Full fuel / tank package600
Electrical / controls400
Monitoring / field kit300
Mounts / integration600
Allocated loaded mass10,600
Reserve to 12,000 lb design ceiling1,400

4. Controls concept for review

FunctionMFP-500 candidate behaviorDryForce candidate behavior
ReadyLocal permission, engine / pump checks, valid level inputLocal permission, power checks, airflow proof and package readiness
RunLevel-based pumping within supplier limitsHumidity / drying demand within supplier limits
Protective faultControlled stop or trip according to fault and vendor requirementsHeater disable / package trip according to fault, with supplier-required purge or cooldown
Communications lossLocal protective functions remain effectiveLocal protective functions remain effective
RecoveryFault-specific local inspection / reset; no universal restart ruleFault-specific local inspection / reset; no universal restart rule

A later cause-and-effect matrix must define inputs, thresholds, delays, failure states, independent protective devices and restart conditions. Emergency stop, normal stop and loss-of-power behavior must be designed individually; do not assume a single hard power cut is the proper response to every fault.

5. Decisions to close in the next revision

  1. Define representative pump sites: source condition, static elevations, suction arrangement, hose lengths and authorized discharge routes.
  2. Obtain supplier curves and a dimensioned pump / drive package for the selected duty envelope.
  3. Define DryForce ambient and moisture-load cases; compare desiccant, refrigerant and hybrid options using supplier data at those conditions.
  4. Reconcile the drying capacity, heat source, connected load and generator / shore architecture.
  5. Obtain component weights, service dimensions and cargo lists. Perform center-of-gravity, axle and hitch reaction calculations before freezing the floor plan.
  6. Issue a coordinated layout, P&ID, electrical single line, controls matrix and updated quote-backed BOM for review.

Technical references

References support general design principles.