Utilities—we don’t always think about what runs beneath our feet, diverting water and sewer systems. But the use of proper storm sewers and culverts is essential to keep our cities functioning, clean, and safe.

Whether handling amounts of waste, accommodating sudden onsets of water runoff and flooding, or carrying water into agricultural sectors to irrigate crops, utilities are the veins beneath a city’s concrete surface.

One of the most commonly used types of pipe is Reinforced Concrete Pipe, or RCP.

Reinforced concrete has been a common material for pipelines and water conveyance systems for centuries.

Concrete itself has been used as a construction material for even longer—a couple of thousand years, in fact. RCP is a sustainable product with a proven lifespan of more than 100 years. This is why it is often the product of choice by specifiers and builders.

RCP is a type of piping used for directing the flow of liquids or water underground.

These pipes are typically used in roadway and site development, as they are designed to convey a very large amount of liquid volume and built to withstand environmental stressors.

Because of Reinforced Concrete Pipe’s (RCP)

  • Strength
  • Reliability

This piping is ideal for infrastructure projects such as storm sewer conduits—RCP can handle large amounts of any runoff, flooding, or storm surges, safely diverting it from city or industry sectors.


Due to its innate resilience, RCP remains strong even through disruptive events and stressors. RCP has impressive durability, sustainability, and proven 100 year lifespan, allowing installations to remain functional and effective for many years.
This means that residents and road users will not be disturbed by unnecessary infrastructure rehabilitation or pipe replacement.

Where is RCP Used?

RCP is a go-to for any utility project because it is one of the strongest and most durable building materials available.

Because of RCP’s proven lifespan, often lasting more than 100 years, uses of concrete pipe include all types of major projects, such as:


Large Scale Irrigation

Sanitary Sewers

Storm Sewers

Contractors, engineers, and transportation departments across the country can rely on RCP to be the most durable selection in pipelines that last for well over a century. They can trust RCP’s structure, rigidity, resilience, and dependability for many years.

What makes RCP?

RCP is constructed from concrete materials, as the name suggests. More specifically, the concrete materials tend to be,

Locally sourced
for each production location



steel reinforcement

As much eco-friendly
material possible

RCP is resilient and sustainable, leaving a lighter carbon footprint and minimal negative environmental impact than other pipe materials such as plastic.

What is RCP’s Lifespan?

Concrete pipe is proven to have an incredibly long lifespan—you can expect RCP to last at least 100 years, and even up to 150 years.

Because of RCP’s inherent strength, durability, sustainability, and resilience to environmental factors, it will last well into the future.

RCP can handle both large liquid volumes and external loads, therefore the extensive lifespan of RCP means less disruption to its environment and roadway users, as the pipeline won’t have to be replaced or repaired as frequently as other pipe materials. RCP is resilient even through disruptive events and can resist many different types of stressors.

Unsurprisingly, concrete is not a new invention. Ancient cultures like the Egyptians and Romans utilized concrete thousands of years ago. So, it’s no wonder that we have learned to depend on concrete products for many construction needs and critical infrastructure projects.

The Origins of Concrete

One of the first recorded applications of what we now call concrete can be traced back to the Roman Empire, around the 2nd century BC. They began mixing volcanic ash, lime, and aggregates to create Opus Caementicium, the first truly effective concrete.

Volcanic Ash

Opus Caementicium The first truly effective concrete

From this original concrete mixture, the Romans were able to mix a variant, known as Pozzulana, that performed incredibly well when submerged in sea water.
Caesarea Maritima

The earliest known example of underwater concrete technology

Pozzuolana’s use in building the seaport of Caesarea Maritima is the earliest known example of underwater concrete technology.

Img source:

The Original Concrete Piping Systems

The first underground application of pipes and culverts to manage water and sewer flow is also attributed to the Romans. When ancient Rome became too overpopulated for a surface sewer ditch system, work was begun on a massive underground concrete culvert and pipe system that drained local marshes to remove the waste of Rome and carry it into the River Tiber.

Cloacae Maxima

Rome’s main sewer system

And so, the Cloacae Maxima (lit. “Greatest Sewer”) was constructed around 300 BC as Rome’s main sewer system.

Img source:

The eleven aqueducts that fed water into the city were also harnessed to help flush out the system, and separate pipes were installed to channel this fresh water to various public fountains.

Today, portions of such Roman concrete masterpieces are still standing and in use—parts of the Cloacae Maxima are visible, as are the underwater concrete ramparts at Caesarea Maritima.

Some two thousand years later, these concrete structures remain sturdy even with continuous exposure to water and liquid erosion.

The Evolution of Concrete Use


John Smeaton discovered a more efficient way to produce hydraulic lime for cement

In more modern times, a major breakthrough was made in 1793 when John Smeaton discovered a more efficient way to produce hydraulic lime for cement, using clay that contained limestone.

Img source: https://en.wikipedia.org/wiki/John_Smeaton


Invention of Cement

Joseph Aspdin invented Portland cement.

Img source: https://en.wikipedia.org/wiki/William_Aspdin


First apartment built

First apartment building using steel-reinforced concrete was built in Paris.

Img source: The History of Concrete – InterNACHI®


The number of large-scale concrete projects increased

The Hoover Dam and Grand Coulee Dam also joined the ranks of large-scale concrete projects in 1936.

Img source: The History of Concrete – InterNACHI®

First Uses of Concrete Pipe

The earliest recorded use of concrete pipe

Img source: The History of Concrete – InterNACHI®

But the first appearance of modern-day concrete sewer systems in the USA came about during the mid-19th century. In Mohawk, N.Y. The earliest recorded use of concrete pipe was installed as a sewer system in 1842. In close succession, other east coast cities began to install concrete pipelines throughout the second half of the 19th century, with many of these pipelines still in use today.

Sorry, your browser does not support inline SVG.
Joseph Monier created wire-enforced concrete & attained his first patent for iron-reinforced concrete

Img source: https://en.wikipedia.org/wiki/Joseph_Monier

In the 1860s, a French gardener and inventor named Joseph Monier created wire-enforced concrete when he was experimenting with building a stronger type of pot to withstand plant root pressure. He presented his invention at the Paris Exposition of 1867, and obtained his first patent for iron-reinforced concrete on July 16th, 1867.

Sorry, your browser does not support inline SVG.
More patents followed in the next few years

Img source: https://www.concretepipe.org/wp-content/uploads/2014/09/cp-manual.pdf

Further patents followed, including iron-reinforced concrete pipes and basins in 1868, iron-reinforced concrete panels for building façades in 1869, and reinforced concrete beams in 1878.

Sorry, your browser does not support inline SVG.
Other development breakthroughs in concrete pipe include the very first reinforced concrete pipes

Img source: https://www.archiexpo.com/prod/prefabricados-alberdi/product-150569-1751189.html

Other development breakthroughs in concrete pipe include the very first reinforced concrete pipes, incorporated in

  • France in 1896
  • America in 1905
  • Australia in 1910

Of course, these early instances of RCP were much different than what we use today—an article from July of 1908 details the early process of constructing a large reinforced concrete sewer via open trench and concrete poured directly in place and cured onsite.

Sorry, your browser does not support inline SVG.
The origin of the method of casting concrete pipe

Img source: http://www.edubilla.com/invention/reinforced-concrete/

Later, during the 1930s, as sturdier motorized vehicles became more prevalent in the industrial sector, reinforced concrete pipes were no longer cast and cured at the jobsite, but were transported from regional casting factories to the site. This is the origin of the method of casting concrete pipe at large factories such as Forterra before distribution.

In modern construction methods, though RCP is still used for many of the same applications such as water drainage and sewer systems, the process is more streamlined. Because concrete is the most durable and strong building material on the market today, RCP can be found in countless infrastructure and drainage projects.

Applications in City Planning

City sewer systems are one of the essential planning aspects of any metropolis. Sewage is a guaranteed waste product in any community, and city planners have to take this into account to ensure the sanitation of the city and the safety of its residents.

Because RCP is known for sturdiness, high joint performance, and resilience; entrusting drainage and runoff management to this product is the best option for storm sewers and construction applications.

RCP is ideal for conveying liquids, it remains strong through disruptive events and external stressors, and lasts for decades—up to 100 years, and can serve for even longer under the right conditions.

100 yrs

Under normal usage

150 yrs

Under right conditions and usage

Due to this lifespan and resiliency, the integrity of roadways and infrastructure is maintained without the need for unnecessary overhaul and repairs.

Storm drains are another crucial factor in city planning and should be designed to handle proper drainage flow rates in case of emergencies, especially if the city is in a documented flood, hurricane, or monsoon zone.

It’s essential for city water-shed systems to have adequate accommodation in allowable slope velocity and open-channel hydraulics to deal with any excess water movement.


RCP allows for heavy waterflow with minimal erosion and dependence on soil support, making it ideal for storm drainage.

Applications in Construction

Apart from moving non potable water within cities, RCP is used for transporting non potable water underground over long distances.

Because RCP can be installed in either a trench or embankment conditions, it has incredibly versatile applications in construction.

It can even be installed by jacking or micro-tunneling when open-cut is not feasible.

For instance, culverts are an important part of roadwork considerations, placed in areas where water needs to flow under man-made structures.

They have to withstand heavy pressure loads from the construction atop them, high amount of water flow inside, and the pressure from surrounding soil and other materials, therefore RCP is ideal for these installations.

Applications in Irrigation

With the ability to transport large amounts of water quickly and efficiently, RCP provides a leading solution in agricultural settings.

The installation of buried RCP can help with irrigation efforts and environmental management applications, rather than using surface level piping that has to deal with uneven topography of textured soils.

Because of its lifespan of over 100 years, RCP buried pipe is an excellent choice for irrigated agriculture in farming and will last for endless rotations of crops and their associated runoff.

Furthermore, the buried pipe is free of environmental issues such as freezing, blockages, or roadway interference to which open channel irrigation systems or above ground piping would be subjected.

Now that the applications and usage of RCP have been discussed, let us investigate more practical aspects of concrete pipe. When it comes to RCP, the physical aspects of handling, installing, and the actual joints and diameters of the pipes themselves are crucial to the strength, efficiency, and longevity of the pipe system.

RCP Measurements: Sizes and Uses

General RCP specifications for projects are as follows:

Standard RCP

Diameters (D) = 12” to 144”

12” to 144” diameters are typical for conveyance of sewage, storm drainage, and culvert systems. Other applications are irrigation systems and treatment plant piping.

Elliptical RCP

Diameters (D) = 15” to 144”

15” to 144” round equivalent diameters of elliptical pipe are excellent choices for spatial restrictions, clearance limitations, or when a piping system requires greater flow capacity for shallow conditions. Elliptical RCP has a geometric, flattened ellipse shape that can be orientated to have either a horizontal or vertical major axis.

Arch Pipe

Diameters (D) = 15” to 84”

15” to 84” round equivalent diameters, with sizes up to 144” equivalent diameter available in some locations, arch pipe is similar to elliptical pipe in use, including for various storm water applications. Shaped into an arch form, this pipe is good for limited cover conditions and improved hydraulic capacity at low flows.

Installing RCP

When installing sections of RCP, 2 workers, 1 foreman, and a backhoe or crane operator are necessary. Workers securely manage the pipe and with the assistance of a crane or backhoe, it is lowered into place.






backhoe/crane operator

The spigot end of the new section is typically slotted into the bell end of the previously installed pipe. It is essential to place and join the sections of RCP correctly and securely.

A properly fitted pipe system will be able to withstand external pressures, environmental considerations, and corrosion, leading to longer lasting pipes that will serve their purpose for several decades with no issues.

RCP and Concrete Joints

Any joints for a concrete pipe system need to be able to withstand pressure, structural stressors, possible erosion and environmental concerns, and other considerations. Joints are important for limiting inflow and infiltration in a closed system. Some of the most commonly used joints in RCP systems include:

These kinds of concrete pipe joints each have unique advantages that include inherent strength, flexibility, soil-tightness, and leak resistance.

Concrete joints are designed to control the positioning and compression of the sealing materials or gaskets, allowing the rigid nature of the joint to govern the hydraulic characteristics of seals, bends, and junctions. Further, joint deflection allows the flexibility of the pipe joints to the minimum angular deflection specified, to form a long radius or to return to grade. Even with larger degrees of angular deflection within specification limits, pressure on the joints is bearable and supported by the pipe material itself.

Governing Standards

ASTM International

Testing and inspection of joints used in RCP are thoroughly covered by national standards set by ASTM International.

AASHTO (the American Association of State Highway and Transportation Officials)

pipelines and their placement affect roadways, the national standards of AASHTO (the American Association of State Highway and Transportation Officials) are referenced.

These governing bodies utilize plant tests to verify joint strength, including vacuum, water, air, and exposure.

Joint Performance Characteristics

Concrete pipe joints are manufactured according to ASTM International standards, providing project appropriate joint designs that can include the following performance characteristics:

  • Ease of installation
  • Strength to handle shear or vertical shift
  • Pipeline continuity and smooth flow without interruptions.
  • Resistance to infiltration of groundwater or backfill materials
  • Resistance to exfiltration of sewage or storm water

Why Choose Concrete Pipe?

For decades, concrete pipe has been the first choice of contractors, city planners, engineers, and transportation departments.

Not only is RCP an incredibly versatile pipe material, but its proven long lifespan also means that any large-scale installations will remain reliably in place and save costs on unnecessary repairs or replacements.

RCP design can be applied to essentially any project, and the range of applications makes it the number one choice.

Other benefits of RCP’s inherent resiliency and sustainability include locally sourced material, reinforcements and pipelines that are resistant to disruptive events. These benefits provide RCP installations that will last for more than 100 years with few problems.

14 Reasons Why Using RCP is Beneficial

We have discussed the general advantages of using RCP in industrial projects, and its popularity stretching back to Roman origins. But when it comes to specific applications of RCP, what are some of the key benefits of choosing reinforced concrete piping? The following are 14 advantages of using RCP in construction projects.

Cost and Value

Because RCP continues to be the strongest, most durable, efficient, and environmentally friendly pipe available, these attributes yield a higher value over the course of its lifetime.


Longevity of RCP is a proven fact, and no pipe material on the market is currently better understood and more frequently relied on than concrete piping.

Plus, the continuous research and development of RCP within the industry continues to enhance its uses and instill confidence in installing concrete pipes.

Construction/Design Flexibility

Because RCP provides reliable pipeline solutions for a variety of projects, including deep burials, open-cut trenches, shallow burials, trench-less, tunnels, or complex alignment changes, concrete piping is the solution for all drainage needs.

Concrete pipe provides versatility in many project applications since it is available in a variety of shapes and sizes and is more forgiving during the installation process.

When it comes to design, RCP is manufactured in a variety of sizes, shapes, seal options, and joint designs.

Lining and coating options also allow concrete pipes to handle even the most aggressive environments.


RCP is made to last for decades. Project owners can expect concrete piping to last 100 years, and in some cases, RCP has proven to last even longer.

This is due in part to the durability of concrete as a material, and its resistance to environmental issues.

RCP’s design compressive strengths of

4,000-6,000 psi
met within 24 hours of curing time

RCP’s design compressive strengths of 4,000 – 6,000 psi are generally met within 24 hours of curing time and the concrete’s strength and durability only continue to increase once installed.

Ease and Value of Installation

RCP’s mass and rigidity make for a relatively easy and very secure placement in the ground.

Concrete joints are easy to assemble and attach, making instillation of the entire system efficient and minimizes the time and effort needed by paid workers.

Environmental Considerations

With a long lifespan, use of relatively natural products, and local availability, RCP is very environmentally friendly.

It is well documented that the cement used in concrete pipe will absorb up to 50% of the CO2 emissions associated with production over its lifespan in a process called ‘carbonation’.

Concrete is the world’s most commonly used building material, so precast concrete pipes can be quickly integrated into ecosystems and are generally benign to the surrounding environment.

Hydraulic Performance

RCP has several built-in features that benefit installation and performance.

The pipe’s mass makes it more durable to install and resistant to flotation. RCP’s rigidity allows it to greatly outperform other flexible piping systems in terms of hydraulics and liquid mass conveyance.

Joint Performance

The variety of joints applicable to RCP are a beneficial aspect of using concrete piping—from soil-tight to pressure gaskets, RCP joint integrity is monitored by certification boards and ASTM and AASHTO standards. Joint integrity lessens the likelihood of substance infiltration or embedment intrusion.

American Society for Testing and Material

American Association of State Highway and Transportation Officials


Many sources document the incredible lifespan of concrete piping, from the U.S. Army Corps of Engineers to transportation inspection agencies.

RCP lifespan and durability has been widely accepted to be over 100 years, and construction companies around the world attest to the use of RCP as a long-term pipeline product.

RCP’s Lifespan
100 years

Mass Considerations

This is an important consideration when it comes to laying pipelines through marshy, boggy, or low-laying environs, where buoyancy can become an issue.

Buoyancy of buried pipelines depends on pipe mass and the weight of water it displaces. The performance of RCP is excellent, given that the mass of concrete pipe typically counteracts buoyant force, and the mass of liquid carried by RCP is enough to securely anchor it.


It might seem obvious, but concrete piping is immune to damage from exposure to flame and heat, unlike its thermoplastic counterparts.

This makes RCP a great option for safety considerations in all sectors, including public, private, and government.

The non-flammable nature of RCP means that fire and toxic fume hazards, and water contamination, are removed from the equation.

Quality Control

The production of RCP is a highly regulated and standardized industry.

Standard setting bodies such as ASTM and AASHTO are able to exert quality control standards over RCP products and each step of their production.

Regulated RCP production includes computer-controlled proportioning and mixing systems, absorption testing, and automated recording systems.

In fact, the American Concrete Pipe Association (ACPA) implements an on-going quality assurance program called the “Quality Cast” Plant Certification Program, or Qcast for short. Additionally, precast RCP is manufactured in a controlled environment where each piece receives a quality check prior to shipping.


RCP is ideal for today’s economic environment, being designed for long-term and sustainable project performance.

RCP resilience is a major factor in its excellence, even during exceptional weather events RCP will not buckle, burn, deflect, tear, or rust, and is immune to most environmental elements.


RCP is the strongest pipe available, and is factory tested to resist any specified design load.

The compressive strength of RCP typically ranges anywhere between 4,000 and 8,000 psi, allowing it to meet various project requirements while still meeting all relevant ASTM and AASHTO standards.

RCP strength

4,000-8,000 psi
still meeting all relevant ASTM and
AASHTO standards.

Structure and Conduit

Unlike flexible piping alternatives, RCP does not depend on the surrounding soil to support its structural performance.

This means rigid RCP immediately provides structure and conduit when it arrives onsite, with minimal need for buttressing.


Because RCP can last for over 100 years after installed, concrete pipes are a very sustainable material for construction projects and infrastructure.

By maintaining structural integrity for decades, RCP reduces the costs of replacement and any environmental harm due to unearthing the pipelines and additional construction.

One of the main considerations of any construction material or product is how long it will last before replacement is needed.

This applies to discussions of cost efficiency, maintenance expense, and the hassle of entire replacement. But many sources do attest to the sturdiness and life-cycle cost benefits of reinforced concrete piping, leading to longevity of 100 years or more. So, what are some specific factors in the durability and lifespan of RCP?

How Long Will RCP Last?

As previously mentioned, RCP has many factors that make it a long-lasting product. But what specific lifespan estimate can you expect from RCP once it has been installed?

The United States Army Corps of Engineers has attested to a usage lifespan of up to 100 years for a reinforced concrete pipe, and has documented numerous instances of installations that have lasted even longer than these parameters. According to the US Environmental Protection Agency, concrete pipes will last at least 100 years, and very large pipes can be expected to last for several centuries.

100 years

usage lifespan attested by
US Army Corps of Engineers

So, between its resilience and resistance to environmental factors, the Estimated Material Service Life of RCP exceeds alternative materials.

Material Service Life of Piping

When it comes to measuring pipeline lifespan, regardless of the material, “serviceability” is the key consideration—defined as the period of time for which a product can function at its intended role.

For example, the serviceability of sewers or culverts running underneath roadways would have to be considered as a conduit to transmit water and as a structure to support roadwork above.

The Canadian Ministry of Transportation’s Gravity Pipe Design Guideline (GPDG) lists the following as factors in material degradation product wear:

  • Abrasion
  • pH Level
  • Slow Crack Growth
  • Soil and Water Resistivity
  • Electro-Chemical Corrosion of Steel
  • Acid, Chloride, or Sulphate Corrosion

Ultimately, these factors are the determinants for a pipe’s life cycle analysis, or LCA, which refers to the number of years that a structure, system, or material will provide adequate service before needing replacement.

Understanding the factors that affect the estimated life span of pipelines is important to determining the longevity of RCP, and because of its natural strength and resistance to many environmental stressors and corrosion, concrete piping has one of the best serviceable lifespans, with serviceability of at least 100 years.

Resilience and Durability of RCP

The following are some damage factors that will affect most pipes, but against which RCP is generally immune. Given its strength and resilience, conditions that are severe enough to result in actual durability problems for concrete piping are actually result in actual durability problems for concrete pipe.


Effluent velocity does not create problems for RCP within the normal flow ranges, so abrasion damage to concrete piping is generally not a concern.

Acid Damage

Though acid is a factor in piping durability, any acid attack of RCP is usually benign.

The acid typically only attacks the surface of the pipes and be neutralized there by the concrete’s alkalinity. So, without further acid replenishment, the reaction halts and the pipes are safe.


Because this type of damage is caused by water penetrating the concrete and freezing, a well-made reinforced concrete pipe will not have an issue with this due to the high density and quality of the concrete.

Additionally, RCP is typically buried with the earth providing insulation from the elements and from rapid temperature changes. Thaw damage is a concern for more porous types of concrete that are exposed, such as asphalt or segmental retaining wall blocks.

Sulphate & Chloride Damage

With both of these corrosives, in order to actually damage RCP, the solutions must permeate the concrete in high concentrations, and have a supply of oxygen.

This is unlikely to occur with concrete piping, and no evidence has been reported that documents chloride-induced corrosion issues in RCP. Because of the additives and liners that can be incorporated in production, RCP in sanitary applications successfully resists corrosion attacks and H2S degradation, meeting or exceeding the100 year design life.

Because pipelines and the construction industry are always innovating and pursuing the newest in manufacturing technology, you can always expect enhancements to RCP. Let’s take a look at some of the latest developments in RCP production.

Innovations in RCP Structures

In terms of future RCP trends, there have been experiments with synthetic fibers imbedded into the concrete itself in order to minimize the need for steel reinforcement, lessening any potential issues with steel corrosion that could occur in rare circumstances.

Slide Concrete Synthetic Fibers Minimize the need for steel reinforcement Lessening any potential issues with steel corrosion that could occur in rare circumstances. The objective of this new production style is to enhance RCP’s ductility and long-term performance where high flexural stresses are anticipated.

Luckily, you can keep abreast of the latest news and innovations in concrete piping with websites like the American Concrete Pipe Association’s “Latest News” section.

One competitor to RCP is corrugated high-density polyethylene and polypropylene plastic piping, or HDPE.

Flexible HDPE piping can be used in construction and infrastructure, and for fluid or gas transfer, though it does not have the same 100-year lifespan of RCP.

Although HDPE is sometimes seen as a lower cost alternative to RCP, there are several considerations to keep in mind when comparing these two piping materials.

Concrete Piping vs Plastic Piping

Even a cursory investigation of the properties of RCP and plastic piping reveals some glaring variances, including the primary difference of structural strength versus pipe stiffness.

structural strength


pipe stiffness

It is important to note that these specific terms are not interchangeable, the differences between the two are significant and technical.

Concrete pipe
  • Significant structural strength Concrete pipe is rigid, with a significant structural strength.
  • Double load barring capacity after installation The load carrying capacity of RCP can more than double after it is installed, because of the benefit gained by the bedding supporting the pipe.
  • Adjustable structural strength of RCP The structural strength of RCP can be adjusted in several ways, by varying the wall thickness, concrete strength, and the amount and shape of the steel material reinforcement.
Plastic pipe
  • Flexible relies entirely on the soil around it Plastic pipe is flexible and relies entirely on the soil around it for its structural integrity.
  • Dependent on surround soil Soil surrounding plastic piping is responsible for its integrity, so any changes to the ground matter can compromise the pipe.
  • Highly susceptible to damage It is also highly susceptible to damage such as buckling, UV overexposure, slow crack growth, cross-boring, floatation, and heat/flame.

Because RCP does not have vulnerability to such damages, and has such a high structural integrity when installed, RCP is a more versatile, reliable, and long-term choice for various installations and infrastructure projects, with service lasting at least 100 years.

RCP is a standard pipe material utilized in countless industrial projects and construction applications. Used for sanitation systems, storm sewers, irrigation, culverts, water management, and treatment plant channeling, reinforced concrete piping is a mainstay in modern city planning and industrial work. RCP has undeniable, proven benefits, including its inherent strength, durability, resistance, cost-effectiveness, and ease of installation.

One major consideration of RCP is its incredible lifespan of over 100 years.

Choosing RCP for construction and industrial applications is the best option for expense, environment, and longevity.