Wildfire Water Solutions discusses the evolving challenges of wildfire management and emphasises the importance of deployable infrastructure solutions to enhance water accessibility and improve preparedness in urban-wildland interfaces
Across many regions of the world, wildfire behaviour is evolving. Longer fire seasons, increased fuel loading, and more frequent extreme weather events are creating conditions that exceed the original design assumptions of many response systems.
In fast-moving wildland-urban interface (WUI) environments, firefighting effectiveness is often shaped not only by expertise and effort, but by logistics – how quickly and reliably critical resources can be delivered to where they are needed.
Water access, pressure, and delivery pathways can become limiting under these conditions, particularly where terrain, infrastructure design tolerances, or concurrent demand create friction. This is not a failure of existing systems, but a reflection of the scale and intensity of modern wildfire events.
This gap has led to the emergence of a new category: deployable infrastructure.
Wildfire Water Solutions (WWS) operates within this category – providing systems that can be rapidly positioned to extend and reinforce existing capabilities. The focus is not simply on moving water, but on ensuring it is available, positioned, and usable under the most demanding conditions, independent of fixed system constraints.
“Our role is to support communities and agencies by improving access to water when and where it is needed most,” says Mike Echols, CEO of Wildfire Water Solutions. “That means working alongside existing systems and extending their reach during periods of peak demand.”
From suppression to preparedness
A global shift is underway – from reactive suppression toward proactive preparedness.
In this context, water is not only a response tool. When properly planned and positioned, it becomes part of a broader resilience system.
Deployable infrastructure enables this shift by allowing water systems to be:
- Pre-positioned ahead of risk
- Sourced from a range of available inputs, including reservoirs, rivers, lakes, and coastal sources
- Operated independently of fixed networks when needed
These systems are designed to complement existing firefighting resources and integrate into established incident management structures.
Availability over volume
Effectiveness in wildfire operations is not defined by volume alone.
In many environments, water may be limited, regulated, or difficult to access. In others, it may be available but not easily delivered to the point of need. The operational challenge is bridging that gap.
WWS systems are designed to operate across both conditions – where water is scarce, and where it is available but inaccessible – by focusing on:
- Placement (getting water to the right location)
- Timing (having it available before and during critical windows)
- Application (using it in a targeted and coordinated manner)
This approach positions water as a strategic resource within a system, rather than an isolated input.
A practical definition of layered defence
Wildfire resilience is not achieved through a single measure. It emerges from multiple coordinated actions that work together to reduce risk.
A layered approach can be understood through four core components:
- Fuel management
- Reducing fire intensity and influencing fire behaviour before it reaches assets
- Operational readiness – Ensuring trained personnel and systems can be activated quickly and operate in alignment with incident management structures
- Community and asset preparedness – Improving ignition resistance through design, maintenance, and planning.
Deployable infrastructure
WWS provides adaptable water delivery systems that can support suppression efforts, improve conditions for firefighting, and extend operational capability during peak demand.
These layers are modular and scalable. They can be implemented incrementally and adapted to local risk, governance, and resource availability.
A reference model, not a requirement
In some cases, communities have implemented more comprehensive versions of this approach.
Oakridge Mobile Home Park in California represents one such example, where fuel management, community preparedness, and deployable water infrastructure have been integrated into a unified system.
It is important to note that:
- This level of integration is not required in all settings
- Individual components can be applied independently
- The underlying principles are transferable across geographies
The objective is not replication, but adaptation.
Operational integration
Effective deployment requires more than equipment. It requires alignment with how wildfire response is managed.
WWS personnel are trained to operate within established incident management frameworks and to coordinate with local fire agencies. Systems are designed to support – not complicate – existing operations, ensuring that deployable infrastructure enhances overall response effectiveness.
Utility partnership and system integration
WWS is engaged in a sole-source, multi-year partnership with one of the largest municipal utilities in Los Angeles, California. This collaboration focuses on strengthening infrastructure resilience and supporting both wildfire response and broader water system continuity.
The partnership reflects a growing recognition that deployable infrastructure can play a role not only in firefighting, but in maintaining critical services under stress conditions.
Beyond wildfire: Multi-hazard water resilience
While initially deployed in support of wildfire operations, deployable water infrastructure has broader applications that are increasingly relevant to national and regional resilience planning.
In many environments, the same conditions that challenge wildfire response – remoteness, terrain, infrastructure design limits, or system stress – also affect the ability to maintain reliable water access during other types of events.
As a result, these systems can be applied across multiple scenarios, including:
- Emergency potable water transfer and distribution
- Continuity of service during infrastructure disruption (power loss, seismic events, system damage)
- Support for remote or rapidly growing populations
- Augmentation of existing systems during peak demand periods
This dual-use capability is particularly relevant for sovereign stakeholders, where infrastructure investments must serve multiple purposes over extended time horizons.
By enabling both emergency response and essential service continuity, deployable infrastructure supports a broader resilience strategy – one that extends beyond wildfire alone.
Operational capability envelope
Deployable infrastructure must be evaluated in the context of real-world conditions. Performance is not defined by a single specification, but by how systems operate across terrain, distance, and resource availability.
WWS systems are configurable based on environment and mission requirements. Typical operating ranges include:
- Water conveyance
- Distance: Up to ~80 km (50 miles), depending on terrain and configuration
- Elevation gain: Achieved through staged pumping configurations, adaptable to varied topography
- Flow rates: Scalable from targeted application to high-volume transfer depending on operational objective
- Sustained operations: Designed for continuous operation over extended periods with appropriate fuel and maintenance support
- Deployment
- Installation speed: Approximately 1-3 km per hour (0.5-2 miles/hour), depending on terrain, access, and configuration
- Time to initial operation: Systems can begin delivering water prior to full buildout, depending on deployment strategy
- Mobility: Transportable without permanent infrastructure; designed for rapid setup and remove
- Water sourcing – Capable of drawing from:
- Reservoirs, lakes, and rivers
- Shallow or unconventional sources with appropriate screening and setup
- Coastal sources where environmental and engineering conditions allow
- Storage and buffering – Modular storage ranging from:
- Tactical (thousands of litres/gallons)
- Strategic (millions of litres/gallons)
- Designed to stabilise supply, buffer variability, and reduce reliance on continuous upstream flow
- Power and fuel
- Primarily diesel-driven pumping systems designed for independent operation
- Fuel consumption and logistics scale with system configuration and duration of deployment
- Capable of operating in environments with limited or no grid access
- Personnel and operations
- Deployment and operation supported by trained personnel operating within established incident management frameworks
- Personnel footprint scales with system size, duration, and mission complexity
- Designed to integrate with local agencies and augment existing capabilities
- Water quality and system compatibility
- Systems are compatible with treatment, storage, and distribution infrastructure
- Can support emergency potable water transfer where treatment and regulatory frameworks are in place
- Designed to operate across varying water qualities depending on application (including salt water
- Adaptability – Configurations can be optimized for:
- Wildfire suppression support
- Targeted water application and exposure protection
- Emergency potable water transfer
- Infrastructure continuity and system augmentation
All specifications are dependent on site conditions, system configuration, and operational objectives.
Closing perspective
Wildfire is increasingly a systems challenge – defined by the interaction of environment, infrastructure, and response capability.
As conditions continue to evolve, resilience will depend on the ability to extend and adapt existing systems in real time. Deployable infrastructure represents one approach to doing so – bridging the gap between what systems were designed to handle and what they are now being asked to withstand.
Please Note: This is a Commercial Profile