When to Restore Your Shoreline: Critical Signs & The Best Season to Start

Most property owners don’t think about their shoreline until the weather turns warm. Summer reveals what winter storms, spring runoff, and fluctuating water levels have done, but by then, the window to act has often closed. Contractors are booked, permits take time, and ecological restrictions can halt work entirely.

Shoreline restoration isn’t just about moving soil or placing stone. It’s a coordinated process shaped by permitting timelines, weather windows, and natural cycles:

• Local and state agencies often require environmental reviews to protect fish spawning, wetlands, and water quality.
• Heavy equipment access depends on stable ground conditions.
• Certain materials can only be installed when water levels are low.

The most successful shoreline restoration projects begin long before visible failure occurs. Subtle warning signs, such as undercut banks, exposed root systems, failing riprap, slumping soil, or accelerated sediment loss after storms, often indicate deeper structural problems.

These signs don’t always mean immediate collapse, but they do signal that the shoreline is losing resilience. Waiting until erosion becomes severe usually increases costs, limits restoration options, and narrows the construction window.

Rather than reacting to damage in the summer, proactive property owners use colder or off-season months to stabilize their shoreline for years to come. Early assessments allow time to secure permits, finalize designs, and schedule construction when conditions are optimal.

In this guide, we’ll break down the critical signs that indicate your shoreline needs attention and explain why fall and winter often offer the best opportunity to act. Understanding when to restore your shoreline can mean the difference between a controlled, cost-effective project and emergency shoreline stabilization.

The Red Flags: When to Act Immediately (Emergency Phase)

Some shoreline issues demand immediate attention. These problems indicate active failure, not cosmetic wear, and delaying repairs can result in land loss, compromised structures, or unsafe conditions.

The Sinkhole Warning

Small holes or depressions in the grass behind a seawall, bulkhead, or retaining wall are not just landscaping issues. These voids typically indicate soil migration, which is when fine soils wash out through cracks, failed joints, or deteriorated wall materials.

This process, known as internal erosion, often happens out of sight. As wave action, fluctuating water levels, or rainfall push soil through weak points, the ground above slowly collapses. Left untreated, sinkholes behind the seawall can quickly expand, leading to wall failure or sudden shoreline collapse.

Act immediately if you notice:

• Soft or spongy ground behind a wall. This indicates that the soil in these areas is unstable, saturated, and losing its structure, which can be a sign of sinkhole formation.
• Circular or elongated holes after rain. Increased water pressure can force sediment down, revealing weak areas where subsurface erosion is taking place.
• Soil at the waterline that wasn’t there before. Soil piping occurs when water flow erodes soil, creating subsurface cavities that cause instability.

Rust & Cracks

Not all cracks mean imminent failure, but some point to more severe issues like instability and erosion.

Hairline vertical cracks in concrete or block walls are common and should be monitored over time. These often result from minor settling or temperature changes.

Horizontal cracks, bowing, or rust stains, however, are major red flags. Horizontal cracking typically indicates hydrostatic pressure building up behind the wall, while rust stains signal corroding steel reinforcement or tiebacks.

Immediate repair is needed if you see:

• Horizontal or stair-step cracking
• Sections of the wall leaning toward the water
• Rust streaks, exposed steel, or flaking concrete

Ice Jacking Aftermath: The Spring Thaw Assessment

In the Chicagoland region, winter ice isn’t just a seasonal inconvenience; it can be a destructive force. As ice sheets expand and shift, they may push seawalls backward, displace riprap, and heave natural shorelines out of alignment, which is a process known as ice jacking.

Along Lake Michigan, the Fox River, the Chain O’Lakes, and smaller inland lakes, repeated freeze-thaw cycles and shifting ice sheets place pressure on shoreline structures and cause damage.

The most important time to assess this damage is late winter or early spring when ice starts to melt and before heavy rains arrive. Meltwater and spring storms can rapidly wash away newly exposed soil, accelerating erosion.

You should schedule repairs immediately to stabilize your shoreline if winter ice has:

• Shifted or lifted riprap
• Pulled a wall out of alignment
• Exposed bare soil behind the shoreline

The Yellow Flags: Signs You Should Plan Restoration Soon (Proactive Phase)

Not all shoreline problems require emergency action, but ignoring them can lead to higher costs down the road.

Gradual Erosion and Loss of Shoreline Width

If your shoreline is slowly creeping inland each year, erosion is at work. This often shows up as:

• Exposed roots along the waterline
• Narrowing beaches or access paths
• Sediment buildup in shallow water

Proactive shoreline restoration can preserve land and often allows for more cost-effective solutions like bioengineered stabilization or riprap reinforcement.

Failing Riprap or Vegetation Loss

Riprap that has settled, scattered, or sunk into the soil is no longer providing effective erosion control. Similarly, dead or thinning shoreline vegetation leaves soil vulnerable to wave action.

These issues are signals that you should implement planned restoration.

When to Do Shoreline Restoration

If you notice signs of erosion or seawall failure, early intervention may allow for targeted stabilization instead of a full shoreline rebuild.

Targeted stabilization focuses on repairing and reinforcing the specific area that is failing, instead of removing and replacing the entire shoreline system.

Targeted stabilization may include:

• Sealing and reinforcing cracks or joints in seawalls or bulkheads
• Re-leveling and resetting displaced riprap or armor stone
• Installing erosion control fabric or filter cloth to stop soil migration
• Adding drainage relief to reduce hydrostatic pressure behind walls
• Rebuilding small sections of the wall before failure spreads

By stabilizing the problem area early, you prevent erosion from progressing behind the scenes.

How McCloud Aquatics Helps With Targeted Stabilization

McCloud Aquatics offers professional shoreline restoration designed to identify the root cause of shoreline failure.

Based on that assessment, we design a stabilization plan that may include:

• Precision repairs to existing shoreline structures
• Structural reinforcement to extend the life of seawalls and retaining walls
• Environmentally responsible erosion-control solutions that protect water quality
• The implementation of SOX Erosion systems and native plants; McCloud Aquatics is a local SOX-certified service provider.

Our goal is always to preserve as much of your existing shoreline as possible while restoring long-term stability.

Shoreline restoration is important because it:

• Protects aquatic ecosystems. Habitat loss can lead to a decrease in biodiversity
• Filters out excess nutrients and sediment that degrade water quality
• Stabilizes the bank using barriers that strengthen your waterbody’s structure
• Creates a bioengineered living shoreline that filters runoff and absorbs wave energy
• Increases the aesthetic beauty of your waterbody

Why Acting Early Saves Money

Early intervention is more likely to reduce total project cost. Minor repairs can prevent:

• Full seawall replacement
• Loss of land
• Emergency action
• Environmental compliance complications

Planned shoreline restoration also allows time to design a solution that balances durability, aesthetics, and environmental stewardship before any major damage occurs. Reactive approaches are more expensive than proactive restoration.

Property Value and Community Impact

Water quality and shoreline stability directly affect property values and community appeal. Eroded, polluted, or unsafe shorelines reduce recreational use and aesthetic value, impacting tourism, local economies, and quality of life.

Investing in shoreline restoration protects both the environment and economic interests.

At McCloud Aquatics, we’re focused on long-term prevention and maintenance to ensure your waterbody remains safe, beautiful, and healthy.

Winter Shoreline Restoration Benefits

The best time for seawall repair and shoreline restoration is often winter. This may not seem like the obvious time to tackle a shoreline restoration project, but in the Midwest, it’s a smart move.

While most property owners associate construction with warm weather, experienced shoreline professionals know that winter offers advantages. Restoring your shoreline in the off-season can mean less disruption, better results, and a smoother overall project.

The Access Advantage

In summer, heavy machinery has to cross soft turf, landscaped lawns, golf course fairways, or HOA-managed green space to reach the shoreline. Even with protective mats, this often results in ruts, compacted soil, torn grass, and restoration after the work is done.

In winter, frost can act as a natural road. Frozen ground creates a solid surface and protects the ground from excavators, skid steers, and material trucks.

For properties with manicured landscapes, limited access points, or shared community space, this can be the deciding factor. Work that would be disruptive and controversial in July can be completed quietly and cleanly in January.

Low Water Levels Reveal the Real Problem

Another winter advantage is water level exposure. In many lakes and rivers, water levels drop during late fall and winter, either naturally or through managed systems. This exposes the “toe” of the shoreline, which is the underwater base that is vulnerable to erosion.

The toe is where most shoreline failures begin. Undermined rock, eroded soil, and displaced sediment below the waterline often go unnoticed during summer, when higher water hides the base damage. Winter conditions allow crews to more easily access and install stone, mesh systems, or structural supports from the bottom up.

Planting: Structure First, Biology Later

One important clarification: winter shoreline restoration focuses on structure, not planting. This is intentional and beneficial.

During winter, crews install structural components of the shoreline system, such as rock, mesh, a sediment mitigation system, or articulated concrete blocks. These elements stabilize the bank and prepare the site for long-term ecological success. However, native plants and shoreline vegetation should not be installed during this phase.

Biological restoration, which involves planting native plugs, grasses, and emergent species, must wait until late spring, when soil temperatures rise, and plants can establish healthy root systems. Installing plants too early risks frost damage and poor survival rates.

Think of winter as laying the foundation and spring as bringing the shoreline to life. By separating structural work from biological installation, you get the best of both worlds: durable stabilization now and thriving native vegetation when the conditions are right.

Why Waiting Until Summer Costs More

When shoreline restoration is delayed until summer, access is harder, water is higher, and damage often worsens. What could have been an efficient winter fix can become an emergency repair.

Winter may feel like the off-season, but for shoreline restoration, it’s an ideal time for preparation and proactive maintenance.

When to Start the Paperwork

Shoreline restoration doesn’t begin with an excavator; it begins at a desk. For many property owners, the biggest surprise isn’t the construction timeline, but the regulatory one.

Federal, state, and sometimes local agencies all have a role in protecting waterways, and their approval is required long before work can begin. Knowing when to start can be the difference between a smooth spring project and a missed season.

The 60 – 90 Day Rule

In Illinois, most shoreline restoration projects require review by the U.S. Army Corps of Engineers and the Illinois Department of Natural Resources (IDNR).

Shoreline permit timelines in Illinois involve site evaluations, drawings, environmental impact considerations, and coordination between agencies. Even straightforward projects routinely take 60 – 90 days from submission to approval.

Delays are common when the paperwork starts too late. Spring is the busiest time for permitting agencies, as contractors, municipalities, and private property owners all rush to get approvals at once.

Requests for revisions, additional documentation, or clarification can add weeks to the process. By the time permits are finally issued, the optimal construction window may already be closing.

Why January and February Matter

Summer shorelines are built on winter paperwork. If your goal is to have a restored, usable shoreline by Memorial Day, the unofficial start of swimming, boating, and lake season, the clock starts ticking much earlier than most people realize.

Working backward from late May, construction typically needs to be scheduled by early spring. That means permits must already be in hand.

To hit that timeline, the consultation and application process should begin in January or February. Starting early allows time for site assessments, engineering or design drawings, agency coordination, and any required revisions, without the pressure of an approaching deadline.

It also positions your project ahead of the seasonal rush, when agency staff availability is tighter and review times stretch longer.

Grant Cycles: Winter Is Decision Season

For municipalities, park districts, and HOAs, permitting timelines often intersect with funding timelines. Many shoreline restoration grants, especially those tied to environmental improvement, erosion control, or water quality, have winter application deadlines for spring or early summer funding.

Miss the application window, and you may be waiting another year for financial support. Beginning the consultation and design process in winter ensures that cost estimates, project scopes, and environmental considerations are ready when grant deadlines arrive. Even if funding isn’t guaranteed, having a ready project significantly improves approval odds.

Planning Is the Real Shortcut

There is no true shortcut for shoreline regulations, but early planning is the closest thing to one. Starting paperwork in winter gives agencies the time they need, keeps your project on track for spring construction, and opens the door to grant opportunities that don’t exist later in the year.

Technical Timing: SOX vs. Riprap vs. Dredging

Not all shoreline restoration methods follow the same calendar. Different approaches, such as bioengineering systems like SOX, traditional riprap, dredging, and native planting, operate on their own technical clock. Understanding these differences is essential for building a shoreline that lasts, functions ecologically, and avoids costly rework.

Bioengineering (SOX)

Bioengineering systems such as SOX (soil-encapsulated lifts) combine structural shoreline stabilization with living vegetation. The system uses engineered soil wrapped in high-strength mesh and anchored in place to rebuild and stabilize eroded banks. Native vegetation is then incorporated to provide long-term biological reinforcement as roots establish and mature.

Benefits

SOX systems deliver immediate physical stabilization by reinforcing the shoreline with engineered soil and anchoring that resists wave action, ice movement, and fluctuating water levels. This structural support helps prevent ongoing erosion, reduces bank sloughing, and protects adjacent uplands and infrastructure from additional damage.

Over time, native vegetation develops extensive root networks that bind soil particles together, increasing strength and long-term slope stability. These roots slow surface runoff and reduce the velocity of wave energy before it reaches the bank, providing a self-reinforcing layer of erosion protection that hard armor alone cannot achieve.

In addition to stabilization, vegetated SOX systems improve habitat by creating transition zones between land and water. These zones support fish spawning, amphibians, pollinators, and beneficial insects while providing shelter and forage for wildlife. The plants also enhance water quality by filtering nutrients, trapping sediments, and reducing turbidity, which can help limit algae growth and improve overall aquatic health.

Finally, SOX systems create a natural shoreline appearance that blends seamlessly into the surrounding landscape. Unlike rigid structures, bioengineered shorelines evolve, becoming more resilient and visually appealing as vegetation matures, delivering long-term environmental value.

Timing Considerations

Structurally, SOX systems can be installed nearly year-round, including winter, as long as site access and permitting allow. Because stability is achieved through engineered materials rather than active plant growth, installation is not limited to the growing season. This flexibility allows shoreline construction to proceed when conditions or schedules prevent other approaches.

The Dormant Seeding Advantage

Dormant seeding involves placing native seed mixes after consistent cold temperatures have set in, but before the ground freezes. The seed remains inactive through winter and germinates naturally in spring as soil temperatures rise.

Benefits

Dormant seeding mimics natural ecological cycles. Seeds experience natural cold stratification, leading to more uniform germination, faster spring green-up, and stronger root development. This approach also reduces competition from invasive species. For shoreline projects, earlier vegetation establishment improves erosion control during spring runoff and wave action.

Timing Considerations

In Illinois, the optimal window for dormant seeding is late fall to early winter. When paired with fall or winter SOX installation, dormant seeding allows a project to be structurally complete before winter and biologically active as soon as spring arrives, maximizing both stability and aesthetics early in the growing season.

Riprap

Riprap stabilization uses large stones placed along the shoreline to reduce erosion by dissipating wave energy. The system relies entirely on proper placement rather than biological reinforcement.

Benefits

Riprap provides protection and performs well in high-energy environments, requiring minimal short-term maintenance. For sites where vegetation establishment is not practical, riprap offers a long-lasting solution.

Timing Considerations

Although riprap does not depend on plant growth, installation is influenced by seasonal site conditions. Fall is often the ideal time due to lower water levels and firmer soils.

Spring and early summer installations may be limited by high water, unstable banks, or environmental restrictions, while winter work is often restricted by frozen ground and access challenges.

Unlike bioengineered systems, riprap does not gain additional strength over time, making correct placement during favorable conditions critical.

Dredging

Dredging involves the mechanical removal of sediment buildup in lakes and ponds to restore depth, improve water flow, or address water quality issues. It is one of the most disruptive shoreline and aquatic management activities. Additionally, permit processing time plays a role in planning.

Benefits

When properly timed and executed, dredging can significantly improve water depth, reduce internal nutrient loading, and extend the functional lifespan of a waterbody. It is often the only viable solution for severe sediment accumulation.

Timing Considerations

Because dredging directly disturbs aquatic habitat, timing is tightly regulated. McCloud Aquatics dredging programs typically operate from late spring through early fall, aligning with permitting requirements, equipment access, and ecological considerations such as fish spawning and aquatic vegetation cycles. Poor timing can increase turbidity impacts, disrupt wildlife, and complicate sediment disposal.

Even though dredging is generally limited to specific seasonal windows, early planning is important. Organizing, budgeting, and scheduling in advance helps ensure the project can move forward efficiently when conditions are right. Therefore, you should start thinking about your dredging project in the fall and winter before the season starts.

Native Planting: A Narrow Window

Native planting is not as flexible as other restoration methods. Installing vegetation outside its viable growing window is one of the fastest ways to guarantee failure.

In northern climates, native shoreline plants should be installed mid-spring through early fall, when soil temperatures support root establishment and plants have enough time to acclimate before winter. This window varies slightly by species, but one rule is universal: planting after the first frost does not work.

Without active root growth, plants cannot anchor into the soil. Freeze-thaw cycles then heave them out, wash them away, or kill them outright. The result is wasted materials, wasted labor, and an exposed shoreline heading into spring.

This is why successful projects separate structural installation from biological installation. Winter builds the system. Spring and summer bring it to life.

Coordinating the Calendar: How the Best Projects Are Built

The most resilient shoreline restorations are not rushed into a single season. They are phased deliberately:

• Winter: Structural installation, such as SOX, riprap, and toe stabilization
• Late fall to early winter: Dormant seeding for early spring growth
• Spring to early fall: Native plug planting, biological enhancement, spring ice heave repair, and dredging

This sequencing can help reduce risk, improve plant survival, and allow each component to perform under ideal conditions.

Trying to compress everything into summer often leads to compromises, limited access, higher costs, ecological constraints, and rushed planting. By respecting the technical timing of each method, property owners gain control over the process instead of reacting to seasonal pressure.

Shoreline restoration is about aligning technique with timing. This kind of strategic planning separates short-term fixes from long-term solutions.

Why Shoreline Restoration Is More Important Now Than Ever

Illinois has seen changes in the weather recently, with increased annual precipitation, heavier rainstorms, and warmer temperatures.

These climate shifts are actively reshaping the state’s lakes, ponds, and reservoirs. As a result, shoreline stability, water quality, and aquatic ecosystem health are under increasing stress, making proactive care and restoration more important than ever.

Without intervention, the physical, ecological, and economic consequences of shoreline degradation will continue, impacting property and natural habitats across Illinois.

Changing Weather Patterns and Their Impact on Illinois Waterbodies

Illinois has seen an increase in total rainfall, with a rise in high-intensity storms. Instead of steady, moderate precipitation that soil and vegetation can absorb, rainfall is arriving faster than landscapes can handle. This leads to rapid surface runoff, elevated water levels, and destabilized shorelines.

At the same time, warmer average temperatures extend the growing season for algae and invasive plants while reducing seasonal ice cover that helps stabilize shorelines during winter months. Less ice means more wave action and erosion throughout the year.

These conditions create a cycle of damage:

• Higher water levels saturate soils
• Saturated soils lose stability
• Shorelines weaken and erode
• Sediment enters the water
• Water quality declines
• Ecosystem resilience decreases

Shoreline restoration interrupts this cycle by stabilizing soils, slowing runoff, and restoring natural buffering capacity.

Erosion and Sedimentation: A Growing Threat to Water Quality

Erosion occurs when wave action, fluctuating water levels, and runoff dislodge soil from shoreline banks. In Illinois, erosion rates are increasing due to:

• More frequent heavy rain events
• Higher and more variable water levels
• Loss of native shoreline vegetation
• Increased wave energy

When eroded soil enters a waterbody, it becomes sediment.

Sedimentation causes:

• Reduced water depth and storage capacity
• Smothering of fish spawning grounds
• Loss of aquatic plant diversity
• Increased turbidity that blocks sunlight
• Higher water treatment costs
• Decreased water quality due to nutrients and pollutants

Unstable Banks and Shoreline Collapse

As rainfall increases and water levels remain elevated for longer periods, shoreline soils stay saturated. Saturated soils lose strength, making them prone to slumping, cracking, and sudden collapse.

Bank collapse can occur gradually or catastrophically, often following a major storm. Unstable shorelines create safety hazards for:

• Homeowners and residents
• Recreational users
• Maintenance crews
• Wildlife

Increased Water Levels and Flooding Pressure

Higher precipitation totals and more intense storms have also led to increased flooding events across Illinois.

When waterbodies exceed their normal levels:

• Shorelines experience prolonged submersion
• Wave energy reaches higher elevations
• Soils erode beyond historical boundaries

Flooding also compresses and weakens shoreline soils, making them more vulnerable to erosion once water levels recede.

Reduced Natural Flood Buffering

Wetlands and vegetated shorelines can absorb excess water and slow flood flows.

As shorelines become hardened or degraded, however, this natural buffering is lost. Water moves faster and with greater force, increasing downstream flooding risks.

Restored shorelines function as living infrastructure.

They:

• Absorb floodwaters
• Slow water velocity
• Reduce peak flow impacts
• Protect adjacent uplands and structures

In a changing climate, these functions are essential for flood resilience.

Nutrient Pollution and Runoff

Heavy rainfall increases surface runoff from:

• Lawns and landscaped areas
• Agricultural land
• Roads and parking lots
• Construction sites

Runoff carries nutrients such as nitrogen and phosphorus, along with pesticides, hydrocarbons, and heavy metals. When shorelines lack vegetation, there is nothing to filter these pollutants before they enter the water.

Algal Blooms and Oxygen Depletion

Excess nutrients fuel algal blooms, including harmful cyanobacteria. These blooms:

• Reduce water clarity
• Produce toxins harmful to humans and animals
• Deplete oxygen as they decompose
• Cause fish kills and habitat loss

Warm temperatures exacerbate these conditions by extending bloom seasons and increasing biological activity.

Shoreline restoration introduces native plants with deep, fibrous root systems that:

• Trap sediments
• Absorb excess nutrients
• Filter pollutants
• Stabilize soils

This creates a first line of defense against nutrient pollution at the water’s edge.

The Impact on Aquatic Ecosystems

Healthy shorelines support diverse plant and animal communities. As erosion, sedimentation, and pollution increase, habitat quality declines. Species that rely on shallow water, emergent vegetation, and stable banks are especially affected.

In Illinois, degraded shorelines contribute to:

• Loss of fish nursery habitat
• Decline in amphibian populations
• Reduced bird nesting and foraging areas
• Increased dominance of invasive species

Shorelines also serve as critical transition zones between land and water. When these zones are damaged or hardened, ecological connectivity is lost. Restored shorelines re-establish this connection, supporting healthier food webs and more resilient ecosystems.

The Danger to Infrastructure

Shoreline damage not only impacts habitats. As shorelines erode and shift, they place stress on nearby infrastructure, including:

• Seawalls and retaining walls
• Docks and boat launches
• Pathways and roads
• Utilities and stormwater outfalls

Hard structures designed for historical water levels and conditions are increasingly failing under modern climate pressures. Cracking and collapse are becoming more common, leading to costly repairs and replacements.

Limitations of Hard Armoring

Traditional hard armoring methods, such as concrete walls and riprap, often:

• Reflect wave energy rather than dissipate it
• Increase erosion in adjacent areas
• Disrupt natural habitat
• Require frequent maintenance

Shoreline restoration that incorporates natural materials and living systems adapts more effectively to changing water levels and reduces long-term structural stress.

Shoreline Restoration as a Climate Adaptation Strategy

Shoreline restoration is environmental stewardship and climate adaptation in action. By restoring natural shoreline functions, Illinois communities can:

• Increase resilience to extreme weather
• Reduce pollution loads
• Stabilize water levels
• Protect infrastructure
• Preserve biodiversity

Restore Your Shoreline with McCloud Aquatics

As weather patterns continue to shift, the cost of inaction will only grow. Shoreline restoration addresses the root causes of degradation rather than treating symptoms, making it one of the most effective tools available for managing Illinois’ water resources in a changing climate.

Shoreline failure rarely announces itself with a dramatic collapse. It starts with small sinkholes behind a wall, hairline cracks that widen with each storm, or riprap shifted to expose soil. By the time those issues become impossible to ignore, the ideal construction window has often closed, permits are still pending, and another season of damage is already underway.

Timing matters as much as technique. Waiting until summer puts property owners, HOAs, and municipalities in a reactive position, forced to work around high water levels, active recreation, vegetation, and limited contractor availability.

In contrast, identifying red flags early and using fall and winter strategically allows shoreline restoration to be planned, permitted, and executed with far greater precision and durability.

Winter and late fall aren’t dormant seasons for shoreline work:

• Frozen ground protects the surrounding turf and infrastructure.
• Lower water levels expose the most critical failure points at the base of the shoreline.
• Structural stabilization can be completed without competing with swimmers, boat traffic, or peak rainfall, setting the stage for successful native planting when biological conditions are right in spring.

Equally important is understanding administrative timelines, including permits, grant cycles, and agency reviews. Projects that begin discussions in January or February are the ones that are ready to break ground when conditions are ideal.

Whether you’re responding to visible warning signs like sinkholes and cracking walls or simply want to avoid the spring rush, the smartest move is to act ahead of time.

Contact McCloud Aquatics for a winter shoreline assessment and planning consultation. The work doesn’t have to start today, but the planning should.