Energy Architecture

Energy planning is central to facility feasibility because kWh per liter is the primary measure used to evaluate atmospheric water energy performance.

Power System

Energy architecture is part of the facility design.

AIROVIA energy planning connects utility supply, renewables, storage, backup power, load management and operating strategy so production can be evaluated against kWh/L and reliability requirements.

kWh/L focusedSite engineeredReliability driven

Facility Energy Architecture

Each site requires power-system engineering around reliability, cost and operating profile.

01

Grid Connection

Utility interface, capacity, tariff, reliability and interconnection constraints.

02

Renewables

Solar, wind or hybrid generation evaluated against site resources and operating profile.

03

Storage and Backup

Battery storage, backup generation and reserve strategy sized around continuity requirements.

04

Load Management

Equipment sequencing, process loading and energy-management controls.

Power Path

Energy moves through the facility as a managed operating system.

01Grid
02Transformer
03Switchgear
04Process Systems
05Treatment
06Storage and Pumping
07Controls

Variables Affecting kWh/L

Specific energy consumption changes with climate, equipment and operating choices.

01

Climate

Temperature, humidity and dew point affect production efficiency.

02

Process

Extraction technology, airflow and plant loading shape kWh/L.

03

Recovery

Heat recovery, thermal storage and equipment efficiency influence demand.

04

Treatment

Water-quality requirements add treatment and pumping loads.

Renewable Integration

Renewables are evaluated site by site.

Renewable integration is evaluated according to site resources, land availability, capital cost, operating profile and required reliability.

Renewable energy does not automatically eliminate the need for grid or backup capacity.