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  Structural Enhancement  

  Structural Enhancement  
 
Above, you can see the structural enhancement capabilities of a Simulform® Co-Liner™, compared to very high-strength polymer cement. This test can be repeated with the SAME Simulform® Structural Enhancement hundreds or even thousands of times - with the same results. With Simulform® Structural Enhancement, the concrete flexes and withstands nearly 8,000 pounds, and returns to its original form - time, after time, after time.

STEEL reinforcement, cannot do this, nor can anything else!
 
 
Should we expect anything less from those who design our workplaces, homes, cities, power plants and industrial infrastructure?
 






 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 





















Most people are not familiar with the criteria for “structural reinforcement” or Structural Enhancement. For any structure or container to attain Composite Reinforcement, two or more materials are combined – each with very different types of strength, and different attributes which are complimentary. Among the earliest composites known to man, were the composite hunting bows which date from prehistoric times – and composite hunting bows remain with us to this day. But today, we have enormously advanced technologies available to us for our own environmental protection as well as our energy needs and food distribution. We can literally form enormously strong composite walls, for any purpose we desire. We can provide our own earthquake prevention within our containment structures, buildings, infrastructure and even our homes and workplaces. Structural enhancement, can now keep us safe, and our structures and transportation intact, in even the worst environmental extremes. Composite materials reinforcement and the structural enhancement of our power distribution centers, as well as our Nuclear Reactors, can keep us supplied with water and power in the worst of emergencies and can keep us safe from our own energy sources. That same structural enhancement can be used on our waterfront structures, in our ships and on our offshore oil platforms. Environmental protection from our paper and pulp mills, as well as our farm, livestock and poultry farms is easily and economically accomplished with composite material reinforcement, and containment of hazardous materials is now easily accomplished through structural enhancement of our containment structures with impermeable and extremely long-lasting economical composite materials reinforcement. Our water supplies, can likewise be protected from contamination and degradation due to “fracking” and aging water and wastewater infrastructure degradation. All of this becomes eminently practical through the use of composite materials reinforcement. We need no longer fear the invisible corrosion inherent in steel and steel-reinforced concrete construction. And maintenance ceases to be the enormous expense it has always been. The weight and inherent danger to human lives and property from those conventional building materials, ceases to be a factor.

Ship hulls and trucking containers used to transport potentially hazardous materials, can be retrofitted with or constructed with, structural enhancement materials which provide a huge measure of safety for both our environment and the public at large.

Simulform Co-Liners are uniquely suited to these purposes, due to their ability to interface with other materials without inducing “stress concentrations”, which cause other composites to fail at their interface with other materials. Carbon fibers and other high-strength materials are wonderfully strong, but have little ability to integrate themselves with the “host material” in a complimentary way. Simulform Co-Liners rely on covalent bonding for structural enhancement, rather than on mechanical or adhesive bonds, which simply do not last and cause enormous stress concentrations which cannot be distributed evenly over large areas for extended periods of time. Co-Liners literally become “part” of the host materials, and cannot be separated once they have cured. Any attempted deflection of the structural host, will transfer the loads within the Structural Polymer, and the host will “rebound” almost instantly – with little if any, deformation of the “host”. The “moment of inertia” is shifted with the use of a Co-Liner, much as the flanges on an “I” beam behave in either tension or compression, as necessary. That principle is fundamental to aircraft design and engineering, and it SHOULD be fundamental to a much broader range of architecture and engineering – as it now CAN be. It isn't “rocket science”... and yet, it IS... What it ISN'T, is complicated or expensive. It is structural enhancement through the use of composite materials reinforcement, using covalent molecular bonding for permanency, reliability and durability.


Simulform® Material Systems


Simulform® Construction is similar in many ways to "protection" that is common in Military, Law Enforcement and Disease Control. Law enforcement officers do not go into a "hazardous environment" without a real "flack jacket and armor". They do not apply a coating to their bodies, or carry around steel-reinforced concrete plates, and hope that it will protect them from harm - nor do they use simple concrete and steel construction for armor and blastproofing. They typically wear a laminar composite with... backup protection. And they use nearly indestructible armor.
It keeps them alive

Doctors who work on communicable diseases do not rely on a "coating" on their bodies to prevent the contraction of a fatal disease. Bankers don't story money or precious metals in vaults made of simple concrete and steel. They use multiple "layers" of protection.

Devastating structural collapse is most commonly the result of a "outdated construction materials and methods; in a "hazardous environment". If you think about Military, Police and Doctors, you will probably take the time to understand what Simulform Co-Liners™® do and how they work.


Catastrophic Structural Failure is a major problem for countries worldwide. Every year, millions of lives are lost to catastrophic Structural Failure and the failure of conventional concrete construction on a very wide range of structures, including public buildings, homes, hospitals, parking structures, nuclear power plants, dams, pipelines, Embassies and many varieties of structures in many of the largest cities in the world. Most Structural Reinforcement has become ineffective due to a lack of knowledge in the field of modern composite construction. Although the problem is essentially a materials technology problem, the main failings of the materials used for Structural Reinforcement can be reduced to a few very simple main problems.

Structural Reinforcement systems typically do not fail because of a lack of compressive strength, but rather due to the poor flexural properties of conventional concrete and steel Structural Reinforcement methodology - which is horribly antiquated, when used alone. Many thousands of lives are lost each year - as victims of the building materials themselves. A hurricane, tornado or explosion, turns the materials into deadly flying bomb fragments - or heavy crushing falling debris. Concrete and steel are notoriously poor barriers against toxic gases, fluids and bacteria - all of which claim an unconscionable number of human lives - and Structural Polymer Systems are impermeable to those deadly agents. WHY should structures be less safe than the inside of aircraft? It simply isn't ethical practice to use antiquated materials to protect human life and property. Concrete and steel alone, are simply, woefully, inadequate for this task.

Steel reinforcement, relies on its bond with concrete, which typically degrades over time, and with exposure to humidity and the moisture permeability of concrete - which behaves as a sponge, wicking moisture to this critical component of the structure and destroying the reinforcement which is critical to protecting human life and property. MANY of the world's most destructive disasters, are simply, and easily preventable. Many have already been prevented through the intelligent use of Simulform Structural Polymer Systems.