Creating A Bullet Resistant Knight Rider

If a hyper-intelligent car is your main tool for thwarting criminals, it is vital that it be bulletproof or your career may be cut short. Although you don’t want heavy armor panels to stop your hyper-intelligent vehicle from being super-fast and high-performance.
 
The latest version of the Knight Rider car solves this problem using nanotech magic. However, the original Knight Rider used a bullet-resistant coating. This was the formula for some of their most memorable episodes (The Goliath episodes).
 
 
Knight Rider" Goliath Returns (TV Episode 1984) - IMDb                                                                             
Although science took another 15 years to develop the bullet-proof coating, ArmorThane was able to make it a reality with their polyurea protective coating. ArmorLiner, their latest advanced and innovative variant of this coating product is a spray-on polyurea coating that makes walls virtually indestructible. Once applied they become bullet/blast resistant and ready to take on any situation.
It was tested by the U.S. Air Force on a typical quicky-build military structure. They were amazed at how well it held up to explosions. Polyurea could not be damaged by the 1,000 pounds of TNT that were required to do so. Some Facts about Fast-Setting Polyurea Spray Coatings
Smash Lab, a Discovery Channel program, tested a polyurea coating on two trucks. One truck had the coating, and one did not. (Although Rhino Liner is a competitor to ArmorThane, it is very similar in chemical makeup.) They then set off five pounds worth of “industrial explosives” underneath the truck’s rear axle. The truck-bed that was left uncoated was shredded and scattered across the desert test site. The liner deflected the blast to the front of the truck and destroyed the cab.  It makes sense to coat KITT with the stuff and have a bulletproof car. You can paint over it to give KITT a sleek and shiny appearance.

 

 

Bullet Proof Bedliner: Why ArmorLiner Is The Ultimate Liner
ArmorLiner is opaque so traditional bulletproof windows will be required. Then there is the issue of the underbody. It is easier to repair cars that are open at the bottom. Coating every part of the car’s bottom would require cutting through the material every time an item needed to be repaired or checked. It is more likely that KITT has a large metal shield running along the underbody. Sarah Graiman and Bonnie would need to take it off in order to make repairs. When fixing-it scenes are being shot, I imagine that a long shielding piece shaped like KITT is leaning against the wall. It’s possible that Billy will knock it over.
 
 
Show News: Knight Rider’s future has been covered in a lot of news lately. The show was first picked up for a full season. After that, the entire season was cut by four episodes. NBC also decided to eliminate three characters: Carrie Rivai and Alex Torres. Future episodes will bear a closer resemblance with the original series, where KITT assists in finding terrorists and criminals. Although it is not clear whether the show will be canceled, there are some signs.

Ballistic Protection With Polyurea

People have tried to protect themselves against projectiles for centuries. This evolved from Hand-held shields made from stretched leather and wooden frames to complete wooden shields. Eventually to full steel shields, combine with chain-mail body armor, specialty woven silk fabric, and finally to specialty metals. As the speed and type of projectiles used have changed so too has combat with the use of BODY ARMOR.

The type of protection required was based upon the type of projectiles that were delivered. These were initially clubs or handheld spears, with developments later that would project an object through mechanical means, such as hand-drawn bow and arrow or mechanical crossbows. Currently protection is based upon projectiles delivered at very high velocity through handheld devices commonly referred to as firearms. For reference, the average speed of sound is 1126 feet/sec.

Protective armor can be made from a variety of polymeric materials. Components and structures that are shrapnel or blast-resistant. Materials like ceramic plates, ultrahigh molecular weight polyethylene (UHMWPE), and poly-aramid are all commonly used. These are also known as “KEVLAR“, and polymeric matrixes that have fiber-reinforced structure, made from one or more of the above-mentioned polymers have been shown to exhibit ballistic dampening.

These are some of the characteristics. Figures 2, 3 & 4 show examples of current armor systems. This protective type of soft armor was first developed in 1943 and was called “The Protective Type Soft Armor”. A “flak jacket”, to reduce the effects of shrapnel and wounds, was used during World War II. With much Development was completed, and the late 1950’s saw the introduction of soft armor protection. However, it was heavy. As the Vest M-1951 or the Armored Vest M-1955. Protective vests could be combined Layers of poly-aramid fabric, and composite plates made from compressed fiberglass laminates. The Doron Plate. Figure 1. Cartridge Comparison L. to R.:.22LR,.380 ACP. 9 mm.45 ACP..357 Magnum..44 Magnum. 5.56X45mm, 7.62X35mm, 7.62X51mm Figures 2, 3, & 4 L to R: Soft Armor and Composite Armor. 

Figure 5 shows an example of the M-1955 vest. Figure 5. M-1955 Armored Vest Possessing positive physical and performance characteristics, but not limited to High strength-to-weight ratios and high impact resistance. These materials can be subject to shock loading. These include Flaking and surface chipping can make them friable. It is also hard to make a durable. These materials can be protected with a protective coating or an aesthetic long-lasting finish. These drawbacks are especially noticeable in applications like the production of blast Location of shrapnel armor in different wear and traffic areas, such as the floors Wall regions and aircraft of various motorized vehicles. Panels and other constructions Attached to the vehicle structure are pieces made from suitable armor material They provide protection for the occupants. These panels provide armored protection that is more than adequate. 

The materials are vulnerable to wear such as chipping, flaking and gouging as well as items like Ordinance-related cargo and ordinance-related items can be dragged or dropped onto panel surfaces during routine usage Operation These materials can be difficult to paint on or coat because of the lower adhesive. The panels are made of polymeric materials that have certain characteristics. 

It would be ideal to create a coating composition that can be used to coat at A friable substrate should not have more than a small portion of its surface. A coating is also recommended It can be used to cover a substrate and stick to it. It would It is also desirable to have a coating composition that adheres well to the substrate With challenging adhesion properties. It would be nice to apply a coating Without unduly compromising, composition that can be used with an armor panel The panel’s blast or ballistic resistance.

You can achieve armor protection by using different layers of UHMWPE and/or Polyaramid fiber sheets Type IIA requires approximately 18 sheets. Type II at 21 sheets, and Type IIIA with 35 sheets or layers. It is interesting that soft armor can be found in both Type IIA with 21 sheets and Type IIIA at about 35 sheets or layers. Panels are sold as backpack inserts and brief cases for students. Protective coatings for play Plural-component polyurea elastomeric technology (PUA), was created after the spray application. 

A variety of applications were demonstrated when the technology was introduced in late 1980s. Although most of the applications are related to protective coatings, there are some other areas. One Spray applied technology was used to create shooting targets (called “Ivan’s”) for the purposes of the US Military Training.6 To produce a variety, the elastomeric Polyurea system was applied to an open mold. For military training exercises, the polyurea was used to create and “human-form” targets. The polyurea was used at Dry film thickness (DFT), 125-250 mils (3.1-6.4 mm). These polyurea targets can be shot at Complete penetration was observed in Type IIA-Type IV classifications (from Tab 1) The projectile. Multiple shots are possible due to the elastic properties of the polyurea. The target was not significantly damaged. There was no stopping power for the projectile. The polyurea produced an interesting result with the holes “resealing” themselves. Later, chopped aramid fiber was introduced to the polyurea spray pattern. System to ensure true ballistic properties.7 – 8. 

Figures 6 and 7 illustrate the effects of aromatic polyurea on entry and exit points of a panel. At a DFT of approximately 250 mils (6.4mm).

Recent work has produced the same results that was seen in the 1980s. To help, the polyurea system could also be used on existing steel components in military vehicles. The polyurea does not reduce the effects of small arms fire and blast shrapnel, but it is NOT BULLET. PROOF! 9 – 13 The polyurea alone would not be enough to stop bullet travel. It can be applied to a thickness well above 1 inch (2.54 cm), which adds considerable dimension and weight.

 A 1 ft2 polyurea piece (0.1 m2) of 1-inch thickness would be over 5.5 lbs. Kilograms This illustration was made using different thicknesses of an aromatic polyurea (elastomer) to illustrate the point. Impact from projectiles listed in the NIJ Classification Table I. An 80 mil Layer (2 mm) was exposed to three rounds with a Type I Classification.22-cal projectile (Type I Classification). The polyurea was heated to 80° F (27° C). The same procedure was used on a similar piece at 6oF (-15oC). To show the PUA’s flexibility at low temperatures, These are shown in Figures 8 and 9. Figure 8 and 9. It was used. 14 The hard system (Shore D50) showed cracking due to the high velocity impact. area, while the soft system (Shore A80) did not. This is quite normal given the High velocity projectile

Protecting the “Plates”. Given the above discussion, and the fact that polyurea is not bulletproof by itself, where do we go from here? Technology fit? Most ballistic plates consist of soft armor made with polyaramid fibers. Composite pieces made of steel, ceramic, or fiber must be protected against any damage. It will be ineffective. Ballistic plates are subject to bullet fragmentation. injury or plate shattering following multiple hits. The polyurea coating system applied to the plate is not recommended. The ballistic part is not to be used, but to trap bullet fragmentation and protect the plates resulting injury or damage.15 The 1950’s Flak Jacket, as mentioned earlier, contains both rigid and soft armor.

The rigid armor consisted of the 130 mil (3.35 mm) Doron plates, which were encased with nylon and cotton fabric. Place in the pockets of the vest by rapping. Rapping serves two purposes: Trapping projectile fragments. Encapsulating the ballistic panel in a Trapping material isn’t a new idea. Figure 10 illustrates the fabric-encapsulated plate. Figure 11 shows the same plate after an impact with a Type IIIA projectile. This is the case. .45 ACP, the common round for that era. The fabric panel, as seen, is efficient, but significant. Panel damage is noted.

A 10″ X10″ test panel of polyurea-protected UHMWPE composite panels was used to demonstrate the effectiveness. (25.4 cm X 25.4 cm) Composite panel of overall A thickness of 20mm was subjected 3 rounds 7.62 rifle caliber projectile. The 20 mm plate It was made up of 18mm thick UHMWPE. Encapsulated in 40 mils (1mm) of polyurea Each projectile contained 155 grains (10g) With a velocity of 2000 feet/sec (610 meters/sec), Energy of 1365 ft.lbs force (1850 Joules). This This is a Type III (rifles), classification All 3 rounds were contained within the composite panel. The first 1/4 inch of total panel thickness is included with no Complete penetration The entrance hole is in the polyurea coating was 2 mm thick. The backside The impact was achieved by bulging the panel. The applied polyurea coating has been damaged. The effectiveness of the following figures is shown in the following series of graphs This polyurea composite panel is made from a bullet Nature is proof.

What happens when a projectile of high velocity impacts a hard-ballistic plate? The projectile Completely disintegrates and will splatter high-velocity shrapnel at 90 degrees (perpendicular). The direct area of impact. The shrapnel can travel at high speed and cause significant damage. Damage to the outer areas. Figures 2 through 6 show the effects of both coated and uncoated. Ballistic panels and protected polyurea ballistic panels for projectile fragmentation The “trapping” effect. Figures 19-20 show the effects of high velocity impacts on a panel made from ballistic steel. The panel He was enclosed in a “soft” zone using cardboard and paper. In Figure 20, you can see the outlying. The “soft” area can be completely cut using a sharp knife or, more descriptively, a buzzsaw. To minimize or eliminate shrapnel dispersion from projectile impacts The ballistic panel and the application of an eleastomeric, tough polymer system such as polyurea Spray coating can be used. This coating can be applied in a variety of thicknesses, depending on the application. Depending on the NIJ classification level. The shrapnel effect will be dissipated by this layer. You can even trap it completely. Figures 21-22 show the effects of projectile impact upon a polyurea-coated ballistic panel. It is important to note that there was no shrapnel splash (Figure 21), and that the projectiles were fully trapped Figure 22: Between the coating layer (Figure 22) and the ballistic panel

As mentioned previously, the polyurea technology has an unexpected advantage over the ballistic work of 1987. After the projectile passes through, the elastomeric properties of the System allowed for penetration to reseal. This has a fascinating lubricating effect. The projectile’s polymer is an important feature in normal coating and liner work. The coating may be punctured by nails or bolts in some cases. This reduces membrane leakage. This is particularly important for common. This technology is used for waterproofing. How does this apply to ballistic applications, however? Storage tanks are often used in many cases. These tanks, whether permanent or mobile, can contain highly flammable substances. These tanks can be found in They may also be shot at in hostile areas. Although an explosion or fire is unlikely, a projectile could cause a spark that ignites the flammable fuel. Coating These structures are made with an elastomeric system of polyurea systems. The leakage is reduced and the steel is not as hot. Substrat is protected from sparking from projectiles This is illustrated by a 1/8 inch (3.18 mm), steel plate coated with about 100 mils (2.5). (mm) of an elastic aromatic polyurea system. The steel plate was prepared according to SSPCSP 5, White Metal Blast Cleaning. It has a profile of two mils (50 microns). 16 These figures show the sealing power of a polyurea system on a substrate After being exposed to projectile impact. These projectile cartridges represent the most effective. Common in hostile areas (Type III rifles).

The steel plate’s exit holes are wider than the actual diameter. Projectiles The applied polyurea is well bonded to steel around it. hole, and “re-sealed” the projectile entry hole. A device was attached to the back of the panel made from steel in order to test the sealing ability. Exit hole. The fluid was then introduced to the device and pressurized to determine the desired pressure. Pressure to demonstrate fluid leakage at the projectile entry area (Figure 28). The liquid used At 77oF (25oC), the viscosity was 1 centipoise, 1 millipascal. These Results are listed in Table III.

Polyurea is not a product, but a technology. Like other coating technologies, polyurea is a technology. There is no “one-size fits all” solution for polyurea technology. There are two types of basic systems for this area: one that provides ballistic trapping effects and one that allows for the Sealing effect. The general characteristics of both systems are shown in Table IV.

CONCLUSION This paper demonstrates how protective coatings such as polyurea elastomer can be applied. Coating technology can provide personal protection. Polymeric composition Systems can be used in a wide range of coating applications, including those with friable and easily combustable materials. Materials with poor adhesion properties and substrates that are damaged may be rejected. Particularly, The compositions shown here are materials that can be used for blast resistance coatings These panels are shrapnel-resistant and can be used for other purposes. This world is becoming more violent. It is vital to protect our military, law enforcers, and citizens. Protective coatings This area is dominated by polyurea technology. Before you make a decision, however Spray yourself with polyurea. But remember that polyurea is not bulletproof by itself! 

US Military Research Shows Polyurea slows bullets, blast fragments and protects against corrosion

Major corrosion problems faced by Amphibious Assault Vehicles (AAVs) in the United States Marine Corps could be solved with polyurea.

As the U.S. Marine Corps looks to extend the AAV, Dr. Mike Roland and Dr. Ray Gamache of the U.S Naval Research Laboratory (NRL) have led a study project into how best to shield and prolong the life of these armored vehicles.

Like those NRL is investigating, innovative sustainment concepts enable them to avoid the cost of new design, development, and production of new components. Since the 1990’s the U.S. Marine Corps has been using bolted-on armor to protect their AAVs. This armor is a laminate of high hard steel, rubber, and soft steel coating in the back. The issue is, this armor gets corroded in severe conditions – including exposure to saltwater. 

                                   Amphibious Assault Vehicle  

The corrosion starts at cracks in the paint, which happens due to expanding the different layers within the laminate – which expand and contract independently due to environmental changes.

The NRL states that polyurea will better protect the armor from corrosion by expanding and contracting with it, rather than cracking as paint does. Furthermore, polyurea demonstrated resistance to bullets and blast fragments by taking kinetic energy from the bullet.

By recreating the unique corrosion issues of the Amphibious Assault Vehicles in a lab, the team has concluded that polyurea is a much better product for protecting the armor against corrosion than paint.

“We solved the corrosion problem,” says Dr. Mike Roland of the NRL. “And with a negligible increase in weight, we also provided a higher payload capacity and the potential for better ballistic protection.”

With conventional materials, you can have something that’s stiff but doesn’t stretch much; or you can have something soft, like silly putty, and it stretches a lot. Polyureas can stretch to 10 times their original length, but the force it takes to do that is enormous—so you get extreme toughness. It truly is the best of both worlds!

To find out which polyurea products would work best for your project, ArmorThane recommends contacting them with your details and one of their experts will assist you in finding the best one.

ArmorThane’s polyurea products can be applied directly to steel and offer incredible shore hardness and elongation that is excellent for flexibility and protection against corrosion, impact, and abrasion. Industrial Coatings - How Polyurea Coatings Help Military Vehicles | IXS Coatings

ArmorThane Simulates Explosions In Order To Advance The Coatings Industry

After an explosion, the first few microseconds are the most important moments for ArmorThane, because that’s when the first hint of damage occurs to nearby structures. As one of the world’s leaders in the field of protective coatings, ArmorThane can decipher a great deal about the explosion and about the damaged materials by those first tiny cracks and how they expand.


ArmorThane has been working since the early 1980s with the U.S. military and, more recently, with the EU military and 
NATO to determine how things break apart and how much force it takes to break them. Their goal is to produce stronger materials that will mitigate the damage from blasts.


Using powerful processors, a three-dimensional digital image correlation operation, and one of the world’s most indelible cameras, which takes stills at 200 million frames per second, ArmorThane can visualize the exact moment of impact. They have used this equipment to improve bulletproof vests, learn how underground bunkers withstand various impacts, and strengthen concrete, among other plans.


For the last several years, they have modified their application to blast mitigation research for military use to help submarines, ships, and other naval facilities withstand blasts.
“When an explosion occurs in the water, its force is far greater than a similar explosion in the air,” said Chad Faught, head of sales for ArmorThane. “So we’re working to understand how damage occurs in air and underwater and strengthening the architecture of new carbon fiber and glass fiber materials as well as our polyurea products to mitigate the damage.”
He is also taking what he has discovered from this research and applying it to the development of blast-resistant materials for buildings, bridges, and tunnels. He is studying the structural materials of these buildings and such things as blast-resistant glass and special coatings on materials that will make them less likely to fail.


“We test these substances at pressures comparable to a large blast using a shock tube,” Faught said, referring to a 23-foot long device that imitates the shock wave from an exploding bomb. “By using the shock tube device very close to the materials we are testing, we can get the equivalent results as by testing much larger explosions farther from the materials. And it’s much safer.”


ArmorThane’s latest project collaborates with large military-backed companies to develop new materials that can be used in the construction of high-tech airplanes that can fly into space.
“We’re creating what’s called functionally graded materials,” he said. “These materials must have thermic characteristics on the outside to resist the tremendous heat that occurs when it re-enters the atmosphere, but they also have to have mechanical properties on the interior to withstand the great load or pressure that will be exerted on the plane.”

Current Blast Mitigation Solutions

 

While we can’t avoid explosions and bomb blasts completely, building owners and other stakeholders can use various strategies to reduce the impacts of such events. These techniques, referred to jointly as blast mitigation, can include using specialized materials, thinking about blast-resistance in structure design, and using items such as blast shields and walls.

Blast mitigation doesn’t refer to avoiding blasts from happening in the first place. Rather, it deals with decreasing the damage caused by these explosions. A detonation’s energy, including shock waves and acoustic waves, along with flying pieces, can trigger damage to structures and injury to individuals. Blast mitigation is interested in making buildings resistant to these forces and securing people and possessions from the damage they can trigger.

The shock waves developed by big blasts, for example, severely pressure windows that trigger them to break and send fragments of glass flying through the air, multiplying the danger of the occurrence. This only occurs, nevertheless, if the window is made with regular glass. Windows made with blast-resistant glass will rather fall apart without sending glass flying. Improving the blast resistance attributes of windows is essential since flying glass is normally the greatest cause of injury in surges such as vehicle-bombing events. In most cases, they can trigger up to 70 to 80 percent of the injuries arising from such an attack.

                                                   Challenges in blast protection research - ScienceDirect

The markets that use blast mitigation techniques are those with centers that are more than likely to experience a blast and facilities that would sustain the most damage. Typically these are the kinds of structures that are probably to be the targets of terrorist attacks or those that deal with substances that have the potential to blow up. Examples of centers that utilize blast mitigation methods consist of airports, federal government structures, large commercial structures, and petrochemical plants.

Organizations develop methods to blast mitigation by performing risk analyses of structures and using these examinations’ data to plan the best approaches.

Taking these preventative measures is crucial to the safety of individuals who operate in and go to these buildings and protect the vital possessions they house.

                      Blast Mitigation Materials

You can utilize various products to alleviate the impacts of blasts. These products can thicken or strengthen the walls of structures, take in impact, or assistance catch flying pieces. The best compound for your purposes will depend on what you need to safeguard and the dangers you require to secure it from. Although there are other possible choices, here are a few of the most typical blast mitigation products:

Wire Mesh: Various kinds of blast mitigation products are made of wire mesh. The metal utilized for the wires is typically steel. Mitigation items that use wire mesh consist of blast shields, containment tanks, and curtains. Our items, including our blast shields and blast containment tanks, utilize 5/8-inch galvanized IRWC wire rope.

Laminated Glass: For windows, companies can use different laminated glass options to improve blast resistance. The very best option is two layers of laminated glass with an air area in between. For expense reasons, though, a layer of annealed or tempered glass and a layer of laminated glass with an air area in between is frequently utilized. The basic recommendation in the U.S. is a quarter-inch laminated glass with an interlayer. Interlayers may be made with polyvinyl-butyral (PVB), plasticized PVB, cured resin, aliphatic polyurethane, and other materials.

Window Film: When retrofitting an existing window to enhance its blast mitigation properties, organizations typically utilize window film. Applied to the within the glass, these movies catch will glass fragments if a blast occurs. While not as ideal as laminated glass, window films work well to retrofit and supply a quick fix. They might need replacement due to damage from UV rays, cleaning, and other aspects.

Foam: You can likewise use innovative polyurethane foam to soak up some of the force of blasts and direct a few of the energy away from individuals or vital devices. This material, which is available in several forms, is typically flame-retardant and self-extinguishing and maintains its abilities under high temperatures.

Poly Spray Coat: August 2019

Polyurea Coatings: Spray-on polyurea coatings can be applied to virtually any material to boost its blast mitigation. This product coats the beyond another compound in a rubber-like movie that mitigates blasts’ force and helps hold together the substrate it coats. Likewise, often called an elastomer coating, you can apply this product in a layer of a couple of inches thick to less than one inch thick.

Blast-Proof Building Design

The structural and design components of a structure can also help to reduce the effects of blasts. For buildings at risk of experiencing an explosion, the architects and structural engineers need to work, maybe with a blast mitigation expert, to incorporate strategies into the structure’s style.

An important first step to structural blast protection is determining the risk level the building deals with and the style requirements that must be followed to minimize that threat adequately. This requires an understanding of the impacts of the blasts that might happen in or near a structure.

One design component that can assist in this area is producing a blast border around the facility to secure it from attacks. This can be accomplished by having security screenings for people going into the buildings or its facilities and checks for plans delivered to the facility. Filling docks that are different from the building can also lower the effects of any dangerous plans. Structure designers may likewise put walls, bollards, or other barriers around the building to limit automobile access.

Beyond avoiding explosives from going into a building, engineers require to consider design elements that decrease the damage a blast would cause and, most importantly, prevent it from causing catastrophic failure.

Structures are often designed with fixed loads in mind; however, blast mitigation requires engineers to consider the structure’s emotional reaction to a blast. They must guarantee that its framing and the pieces can represent modifications in pressure.

The structure must likewise be designed so that it can still stand if one column or wall collapses. Rather than the collapse of one element leading to another’s failure, the damages require to be limited to a single area through redundancy and separation of sections structurally. A blast-resistant style may likewise require walls or columns that are bigger or thicker than standard so that they can better withstand the force of blasts.

Integrating these factors into the design and building process can increase costs and the time it takes to construct a center. Still, for structures that have a high threat level, blast mitigation is a critical consider the design procedure.

Blast Mitigation Products

For high-risk structures that require robust defense from the impacts of possible explosions, blast mitigation products are frequently the most effective solutions. Blast guards, specifically those made with durable steel cables, are often the best choice for containing explosions. Blast shields might also be called blast walls or curtains, depending on how they are utilized.

Because these guards are made from tightly woven steel cable televisions, they can likewise obstruct a large portion of the pieces that may be produced by an explosion but will not trap harmful fumes. Unlike some other items, steel cable television blast guards include shrapnel and reduce its velocity instead of redirecting it.

Additionally, our blast shields are fireproof and can stop fires from infecting areas outside the shield.

Blast shields have numerous advantages over other kinds of barriers. Walls to broaden the perimeter can move the blast danger farther from the primary structure. However, they do not contain the blast itself. The event might still hurt individuals within the perimeter, and if a detonation at the limit is big enough, its force may still reach the primary structure and trigger damage.

Securities such as concrete walls might likewise fragment and trigger additional destruction and injury. Because of blast guards’ versatile style, they will not break apart throughout surges and can still supply security even after being exposed to massive blasts.

Utilizing a Blast Shield

Blast guards feature a flexible, modular style that makes it simple to set them up according to different scenarios’ needs. They’re likewise light-weight and simple to transport while still providing robust security. You can temporarily set them up for security at a one-time occasion or make them a permanent protective procedure at a center.

Blast shields come in panels that you can utilize individually or combine to cover a larger location. Users often hang them like a drape over an opening or an area with windows, set them up as walls, or cover a ceiling or roofing system with them. Blast guards create an enclosed area at a checkpoint to consist of potential detonations.

You can place blast guards versus building exteriors to safeguard the structure or set them up near a center’s boundary. Blast shield roof security systems can protect a structure and the people inside it from rocket attacks and other blasts from above. You can also hang them along with the parking lot’s open spaces to prevent surges from destructive buildings outside of the garage. If a garage is developed independently from the main facility, this can be particularly beneficial for lowering damage.

Blast guards are necessary for petrochemical and manufacturing centers and research laboratories that have high risks for surges to the materials they manage. Placing a blast guard around an area where possibly explosive substances are stored can help minimize the damage that can occur in a mishap.

Facilities with industrial boilers can likewise utilize blast guards to protect people and properties. A release of pressure from an industrial boiler can be extremely harmful. However, a blast shield system can include a considerable part of this effect. Blast shields can be placed on the walls or flooring in a boiler room to safeguard the foundation from blast effects.

 

                       Blast Mitigation Best Practices

Blast mitigation is an increasingly important concern for many sorts of organizations. It’s especially essential for those who deal with dangerous materials or could be the victim of a terrorist attack. To safeguard your facilities and possessions, along with individuals, from the effects of blasts, utilize these practices:

Make Security a Priority From the Beginning: Safety and security, consisting of blast mitigation, need to be a central factor to consider from the beginning of any planning processing. Whether you’re establishing a brand-new organization or constructing a new facility, make security an important part of your style procedure. If you have an older building that doesn’t meet security standards, consider changes you can make to enhance security.

Conduct a Risk Assessment: To better understand the actions you require to reduce blasts, carry out a threat evaluation. This involves identifying the potential threats and the damage that potential blasts may cause. This danger assessment will provide you the info you need to identify the best course of action for safeguarding buildings from blasts.

Think About Blast Mitigation in Building Design: If you’re designing a new structure for which the threat level is high, blast mitigation should play the main function in the building’s style. The architect and style engineer must work carefully with a blast mitigation specialist to design the structure and its boundary in such a way that reduces the damage that a detonation would trigger.

Use the Right Materials: The materials you use for your building and facilities are another vital consideration. Not only can some materials stand up to blast impacts much better than others, but the products utilized can either intensify the effect of a blast or minimize it. Some products will shatter and send out debris flying at unsafe speeds, while others can soak up some of the force of a surge.

Usage Blast Mitigation Products: For innovative protection of your structure, properties, and people, usage items are created specifically for blast mitigation. Make certain that the products and kinds of items you utilize fit your needs. You can also personalize the size, positioning, and design of many of these items to make them more reliable for your particular scenario.

Implement Security Processes: Security processes can also help protect your company from explosions. Establishing a safe boundary and screening individuals and shipments before they go into can significantly decrease threat when combined with blast mitigation strategies. Conduct a background look at brand-new employees and possibly even those who will be visiting your facility.

Blast Protection From ArmorThane

The risk of blasts due to either mishaps or deliberate acts is something we can not ignore. Making blast mitigation a priority and following these practices can greatly assist in decreasing risks.

ArmorThane offers products that can be an essential part of your blast mitigation technique. Their resilient, personalized, highly reliable blast mitigation products can substantially minimize the damage that a surge might cause. For additional information about how their blast shields and the other products they offer can help reduce threats for your company, call them or ask for a quote today.

Polyurea Coating for Defense & Military Markets Is Expected To Grow By Double Digits In The Coming Years

Market.us, one of the worlds leading market research firms, has released new research on Polyurea Coatings for Defense Military based on business intelligence, consumer preferences, and statistical surveys. 

The report illustrates the primary obstacles and new expansion strategies implemented by key players in the industry such as ArmorThane, VersaFlex, Rhino Linings and others. It is an invaluable source of intelligence data for business strategies, growth analysis, historical and futuristic cost, demand, and supply data.

The expected revenue value for spcifically the global Polyurea Coating Military market is expected to reach USD 558.8 million by 2028. And it is anticipated to grow a healthy growth rate of more than 11.6% for the period between 2021-2030.

The report also covers all the recent development changes recorded during the COVID-1 outbreak.

All of this data incorporates the impact of the ongoing global crisis, i.e., COVID-19, on the Polyurea Coating for Defense Military market and how the pandemic is tweaking the current situation. Various disruptions are being observed on account of lockdowns imposed to control the COVID-19 spread, leading to uncertainties in the market.If you would like to view a copy for your self, you can click here to read through it yourself. I will be reporting more findings as i go through all the data in the coming weeks. We felt it important to go ahead and post some of the points now for those in the market as we feel there is a lot of important data that could be crucial to your business survival. Especially considering we are in the middle of a pandemic that has gripped our nation and the world. https://market.us/report/polyurea-coating-for-defense-military-market/request-sample/.

Using ArmorThane’s Polyurea for Blast Protection

Polyurea Review recently conducted a study in which two identical concrete structures were built, one left uncoated and one coated with polyurea. Both structures contained a military office setting complete with dummy equipment. A bomb the equivalent of 250 lbs. made up of TNT and 10 lbs. of C4 was detonated 20 feet from the structure.
The results produced stark differences between the two structures. The dummy in the polyurea protected room was unscathed. Lots of dust kicked up, the walls flexed and pounded, but everything held up remarkably well. We at Polyurea Reviews are very impressed with the way the polyurea protected room held up.
Our testing employed multiple special blast mitigation coating products, designed for protection in explosive environments. For this article, we will discuss the results of our top-performing product. In this case, it was ArmorBlast, produced by ArmorThane.
When it comes to blast-resistance, the structural integrity of a building’s design is the most important factor in blast protection. Still, the next thing is the protective coating around that structure. The wall panels are essential, but our blast testing revealed that the polyurea sprayed areas could withstand tremendous blasts.
When the structure itself has redundancies built into the walls and roof, like the wall studs’ close spacing, the outer coating won’t have any bearing on structural integrity.
There is no doubt polyurea affects blast-resistance. This shows the significance of selecting a good polyurea when blast proofing any structure.
To sum up, one can only conclude that polyurea protects structures when applied correctly to any structure.
To learn more about ArmorThane’s blast testing, click here.

Blast Mitigation Attributes
• Material deflects energy of blasts while keeping structures intact

• Sprayed lining creates a monolithic seamless barrier

• High flexibility of material eliminates or reduces shrapnel and other collateral damage

• Adheres to a variety of surfaces including concrete, steel, aluminum, fiberglass, and more

• Adjustable thickness depending on level of protection required

• Conforms to any shape

Military & Blast Protection Coatings

For years many companies and governments worldwide have tried to develop better ways to protect human lives and physical property from blast threats.

The destruction caused by blasts/explosions and the resulting energy shock waves can cause devastating damages and injuries. Modern chemistry and the innovative R&D team at ArmorThane have produced several solutions to help blast protection and combat these tragic events.

“Protecting the protectors.” 

ArmorThane’s UltraBlast high strength Polyurea coating provides superior blast mitigation and ballistics protection to military and civilian entities worldwide.

ArmorThane originally produced these groundbreaking polymer coatings with the United States military in mind. After years of R&D and continual improvement of the technology, SPI is proud to offer industry, cutting-edge, blast resistance solutions that help save human lives and protect property.

Contact us today to learn more about how SPI’s advanced Dragonshield Polyurea coatings provide superior blast and ballistic protection.

Indestructible Protection

Arma Coatings has been recognized by the security and defense industry for unmatched blast mitigation technology. As leaders in polyurea product development, we have formulated protective coatings approved for many military applications.

Body Armor

ArmorThane’s protective coatings shield against ballistic attacks and fragmentation, safeguarding personnel, and minimizing injuries.

  • Armor plates
  • Bulletproof vests
  • Ballistic vests
  • Stab proof vests

Blast Mitigation

ArmorThane products can be applied to various surfaces, including concrete, steel, fiberglass, and aluminum. The perfect balance of power and elasticity increases structural integrity and superior impact resistance.

MRAP Vehicles

ArmorThane protective coatings shield mine/ambush-protected vehicles from ballistic firearms, mine blasts, IEDs, and other malicious threats.

Fuel Tank Sealer

ArmorThane’s self-sealing polymers aid in the prevention and minimalization of fuel leakage caused by arms fire.

  • Protection against IED’s, mine blasts, and small arms fire
  • Corrosion and abrasion stability
  • Vibration and acoustic dampening
  • Adds basic integrity to fuel cells
  • Superior adhesion and tensile strength

SAFE ROOM BUILDING

For years many companies and governments worldwide have adjudicated to develop better ways to protect human lives and physical property from blast threats.

The damage caused by blasts and the resulting energy shock waves can cause disastrous losses. Modern chemistry and the innovative R&D team at ArmorThane have produced several solutions to help blast protection and combat these catastrophic events.

 

Protecting the protectors

 ArmorThane’s UltraBlast high strength Polyurea coatings provide superior blast mitigation and ballistic protection to military and civilian entities globally.

ArmorThane originally developed these groundbreaking polymer coatings with the United States military in mind. After years of R&D and constant development of the technology, ArmorThane is proud to offer industry, cutting-edge, blast resistance solutions that help save human lives and protect property.

Contact them today to learn more about how ArmorThane’s advanced Polyurea coatings provide superior blast and ballistic protection.