What We Do

Alpha Water & Power Islandable Microgrid Systems

Resilient Power Infrastructure

Islandable Microgrid Systems

Generation, battery storage, controls, and electrical infrastructure working together as one intelligent and resilient power system.

Discuss a Microgrid Project
Coordinated Power for Critical Operations

Why Choose an Islandable Microgrid?

Traditional standby systems are generally designed to respond only after utility power fails. A microgrid takes a broader approach by actively coordinating utility service, on-site generation, battery storage, renewable resources, and critical facility loads during both normal and emergency operation.

A properly designed microgrid can separate from the utility, stabilize the local electrical system, and continue serving prioritized facility loads.

The same infrastructure can also support daily energy management, peak-demand reduction, power-quality improvement, generator optimization, and phased capacity growth.

AWP develops microgrid architectures around the site’s actual load, operating priorities, utility conditions, available fuel, resiliency objectives, and future expansion plans.

Integrated Microgrid Architecture
Multiple energy resources coordinated through one control platform.
Utility Grid Connected when available
On-Site Generation Dispatchable sustained power
Battery Storage Fast response and reserve
Renewable Resources Optional distributed generation
Critical Facility Loads Prioritized and protected
Microgrid
Controller
The control platform continuously balances supply, storage, utility conditions, and critical facility demand.
One System, Multiple Operating Strategies

Microgrid Operating Modes

01

Grid-Connected Operation

During normal utility operation, the microgrid can manage energy use, coordinate on-site assets, and improve the facility’s daily power profile.

  • Peak-demand management
  • Energy-cost optimization
  • Generator and battery coordination
  • Utility program participation
02

Islanded Operation

When utility power is interrupted or intentionally disconnected, the microgrid can continue supplying designated critical loads.

  • Automatic utility separation
  • Local voltage and frequency control
  • Critical-load prioritization
  • Generation and storage dispatch
03

Transition and Recovery

The control system manages the movement between utility-connected and islanded operation while maintaining system stability.

  • Ride-through support
  • Black-start sequencing
  • Controlled load restoration
  • Utility resynchronization
Operational Resilience and Control

Key Benefits

Islanded Operation

Maintain designated critical loads when utility power is unavailable or unreliable.

Coordinated Asset Control

Generators, batteries, renewables, utility service, and facility loads operate through one unified control strategy.

Black-Start Capability

Selected configurations can restore critical power without depending on an operating utility source.

Load Prioritization

Critical and noncritical loads can be managed according to their operational importance and available power.

Phased Expansion

Additional generation, storage, and facility loads can be incorporated as the project or campus grows.

Operational Visibility

Centralized monitoring provides real-time visibility into generation, storage, load, utility status, and system performance.

Complete Microgrid Infrastructure

Integrated as One Operating System

A microgrid is more than a generator and battery. It requires controls, protection, switchgear, communications, electrical distribution, operating logic, and commissioning to function as one stable power platform.

Dispatchable Generation Natural-gas engines, turbines, or other appropriate generation assets.
Battery Energy Storage Fast-response and extended-duration storage selected for the application.
Microgrid Controller Central operating logic coordinating supply, storage, and facility demand.
Switchgear and Protection Electrical isolation, fault protection, synchronization, and controlled switching.
Transformers and Distribution Medium- and low-voltage infrastructure delivering power across the site.
SCADA and Communications Monitoring, alarms, controls, event records, and remote system visibility.
Renewable Integration Solar and other distributed resources incorporated where they support project goals.
Commissioning and Testing Functional testing of islanding, black start, transitions, and control sequences.
Where Microgrids Perform

Applications

Data Centers
Water and Wastewater Facilities
Industrial Plants
Remote Communities
Workforce Housing
Emergency Infrastructure
Hospitals and Campuses
Oil and Gas Operations
Site-Specific Microgrid Engineering

Engineered for Performance

Every microgrid is configured around the facility’s real operating profile, critical-load hierarchy, utility conditions, available energy resources, and required level of resilience.

Facility load-flow and critical-load assessment
Generation and battery-storage sizing
Utility interconnection strategy
Protective relaying and switchgear design
Microgrid controller and SCADA integration
Automated load shedding and prioritization
Black-start and restoration sequencing
Redundancy and single-point-failure planning
Renewable and distributed-resource integration
Islanding and utility-resynchronization logic
Communications and cybersecurity planning
Commissioning and operating-mode testing
From Load Assessment to Operation

The AWP Microgrid Development Process

Step 01

Assess

Review facility loads, utility conditions, critical systems, operating schedules, fuel availability, and resilience objectives.

Step 02

Model

Evaluate power flow, generation capacity, storage duration, redundancy, islanding, and operating scenarios.

Step 03

Design

Develop the preliminary architecture for generation, batteries, controls, protection, switchgear, and electrical distribution.

Step 04

Integrate

Coordinate equipment sourcing, detailed engineering, construction, communications, utility interfaces, and system controls.

Step 05

Commission

Test connected, islanded, black-start, transition, protection, and restoration sequences before final operation.

Start With Your Critical Loads

Discuss an Islandable Microgrid Project

Share your facility load, utility conditions, critical equipment, available fuel, existing generation, and resilience requirements. AWP will help define an appropriate microgrid development pathway.