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Airport runways are the bustling arteries that connect the world, facilitating the seamless movement of aircraft. However, over time, these critical surfaces become marked by a unique challenge – rubber deposits from landing aircraft. The importance of rubber removal on airport runways cannot be overstated, as it directly influences the safety and efficiency of air travel. In this blog post, we will delve into the significance of rubber removal and explore the various techniques employed to keep runways clear and safe. The Impact of Rubber Buildup Rubber deposits accumulate on airport runways primarily due to the friction generated during aircraft landings. As aircraft touch down, tires heat up and leave behind thin layers of rubber, which, over time, accumulate and reduce the friction coefficient of the runway surface. This buildup poses several challenges: Reduced Friction: Rubber deposits diminish the natural friction of the runway, increasing the risk of skidding during landings and takeoffs, especially in adverse weather conditions. Impaired Drainage: Runways are designed to efficiently drain water during rain or snow. Rubber buildup can impede this drainage, leading to hazardous conditions and potential aquaplaning. Decreased Visibility: Rubber deposits can also affect runway markings and make visual assessments difficult for pilots, particularly during low-visibility situations. Techniques for Rubber Removal Various techniques are employed to combat rubber buildup on airport runways, each designed to efficiently restore friction and maintain a safe operating environment. Some of the most common methods include: Chemical Cleaning: This method involves the use of specialized chemicals that break down the rubber deposits, making them easier to remove. High-pressure water jets or mechanical scrubbers are then used to clean the treated areas. This approach is effective but requires careful consideration of environmental impacts. Mechanical Abrasion: Mechanical methods involve the use of equipment such as runway sweepers, brooms, or brushes that physically scrub away the rubber deposits. These machines may use water or specialised cleaning agents to enhance their effectiveness. High-Pressure Water Blasting: This technique employs high-pressure water jets to dislodge and remove rubber deposits. The force of the water effectively breaks down the rubber, leaving the runway surface clean and restored. Ultra-High-Pressure Water Blasting: This advanced method utilises extremely high-pressure water to achieve superior cleaning results. It is particularly effective in removing stubborn rubber deposits while minimizing damage to the underlying runway surface. this technique which is referred to as Hydroblasting is arguably the most cost-effective and environmentally friendly way of removing runway rubber marks. Read more on THB Hydroblasting Conclusion In the dynamic world of aviation, maintaining the integrity of airport runways is paramount for ensuring the safety and efficiency of air travel. The importance of rubber removal cannot be overstated, and airports worldwide invest in cutting-edge techniques to address this challenge. As technology continues to advance, the aviation industry will likely witness the development of even more innovative and sustainable solutions to keep our runways clear and safe for the countless takeoffs and landings that connect us all.

Introduction: In the intricate tapestry of urban and rural landscapes, road line markings play a crucial role in guiding and regulating traffic. Beyond their aesthetic appeal, these painted lines serve as an intricate language, conveying information to drivers and pedestrians alike. In this blog post, we delve into the art and science of road line marking, exploring its significance, evolution, and the technology behind this essential aspect of modern transportation. The Evolution of Road Line Marking: The history of road line marking is as rich and diverse as the roadways they adorn. Early road markings were basic and primarily focused on denoting the centre of the road. However, as traffic and transportation needs evolved, so did the complexity of road markings. The introduction of different types of lines, symbols, and colours became essential for efficient traffic management. Importance of Road Line Markings: Traffic Guidance and Flow: Road line markings act as silent traffic conductors, guiding vehicles along the most efficient and safe routes. Whether it’s indicating lanes, turnings, or pedestrian crossings, these markings are the unsung heroes of organised traffic flow. Safety Enhancement: The safety of road users is paramount, and road line markings contribute significantly to accident prevention. Clearly outlined lanes and crossings reduce the likelihood of collisions and provide a visual cue for drivers to follow, especially during adverse weather conditions or low visibility. Communication and Information: Road markings communicate essential information without the need for words. Symbols and lines convey warnings, instructions, and regulations, fostering a standardised language that is understood globally. Technological Advances in Road Line Marking: Reflective Paints: Traditional road markings often relied on basic paint, but technological advancements have introduced reflective paints. These paints enhance visibility during low-light conditions, contributing to increased safety on the roads. Thermoplastic Markings: Thermoplastic road markings offer durability and longevity. Applied using heat, these markings withstand harsh weather conditions and heavy traffic, ensuring that the lines remain visible for an extended period. Smart Road Markings: The era of smart cities has paved the way for intelligent road markings. Embedded sensors and technologies in road lines can provide real-time data on traffic conditions, enabling authorities to make informed decisions for traffic management and safety improvements. Future Trends and Sustainability: As we look ahead, the road line-marking landscape is set to witness further innovations. Sustainable materials, such as eco-friendly paints and recycled thermoplastics, are gaining traction. Additionally, the integration of digital technologies like augmented reality for road markings could redefine the way we perceive and interact with road infrastructure. Conclusion: Road line markings are far more than strokes of paint on asphalt; they are a dynamic and critical component of our roadways. As we continue to evolve in our understanding of transportation and urban planning, the role of road line markings will only become more integral. Through a combination of art and science, these markings weave a tapestry of safety and efficiency, guiding us on our journeys and ensuring that our roads remain pathways of order in the chaos of modern life.

Introduction As we traverse the intricate web of urban landscapes, the quality and condition of road surfaces play a pivotal role in our daily lives. Behind the seamless asphalt and concrete highways lies a meticulous process of road surface preparation, ensuring durability, safety, and a smooth ride for all. In this blog article, we delve into the key components of road surface preparation, focusing on hydroblasting, road sweeping, and planing, and how they collectively contribute to the foundation of robust road infrastructure. Hydroblasting: Unleashing the Power of Water The Process: Hydroblasting, also known as water blasting, is a dynamic technique that utilises ultra-high-pressure water jets to remove dirt, debris, and old road markings from the road surface. The sheer force of the water effectively cleans and prepares the pavement for subsequent treatments. Benefits: Environmentally Friendly: Hydroblasting negates the need for harsh chemicals, making it an environmentally friendly option for road surface preparation. Surface Preservation: The precision of water jets allows for thorough cleaning without causing damage to the underlying road structure. Efficiency: Hydroblasting efficiently removes contaminants, ensuring a clean slate for the next stages of road maintenance. Road Sweeping: Clearing the Path to Clarity The Process: Road sweeping, a seemingly simple yet crucial step, involves the mechanical removal of debris, dirt, and loose particles from the road surface. This process is often employed after hydroblasting to ensure a pristine surface. Benefits: Prevents Surface Damage: Removing debris prevents abrasive particles from damaging the road surface and extends the life of the pavement. Enhances Visibility: Clean roads improve visibility for both drivers and pedestrians, reducing the risk of accidents. Prepares for Markings: A swept surface provides an ideal canvas for the application of road markings and signage. Planing: Precision in Road Resurfacing The Process: Road planing, or milling, is a method that involves the removal of a specified depth of the road surface. This step is crucial for addressing issues like uneven surfaces, potholes, or worn-out asphalt layers. Benefits: Restores Surface Smoothness: Planing levels the road surface, creating a smooth and even foundation for new asphalt or other road materials. Recycling Opportunities: The milled material can often be recycled and reused in new road construction, promoting sustainability in infrastructure projects. Addresses Structural Issues: Planing allows for the identification and rectification of structural problems, contributing to the overall stability of the road. The Symbiosis of Techniques: While each of these road surface preparation techniques serves a unique purpose, their collective application ensures a comprehensive approach to road maintenance and construction. Hydroblasting clears the way, road sweeping ensures cleanliness, and planing provides precision for resurfacing—creating a harmonious sequence that sets the stage for a robust road network. Conclusion: As we marvel at the well-paved roads beneath our wheels, it’s essential to recognise the intricate dance of technologies and methodologies that precede the final product. Hydroblasting, road sweeping, and planing, each playing a distinctive role, collectively contribute to the longevity, safety, and functionality of our roadways. The artistry of road surface preparation is a testament to the dedication and innovation driving the evolution of our infrastructure, one meticulously prepared road at a time. Contact Us Call us at 0800 0146 420 and speak to one of our team about our surface preparation services.

In the realm of road safety and infrastructure, one often overlooked yet critical element is the surface beneath our wheels. High-Friction Surfacing (HFS) provides a solution that enhances grip, reduces accidents, and transforms roadways into safer environments. This blog post explores High Friction Surfacing, shedding light on its benefits, applications and the pivotal role it plays in safeguarding lives on the road. High-Friction Surfacing (HFS) has emerged as a game-changer in road safety, offering a specialised solution to enhance skid resistance and reduce the risk of accidents. In this blog post, we delve into the intricacies of HFS, exploring its materials, benefits, applications, and the exciting future trends and innovations shaping the road safety landscape. Unravelling High-Friction Surfacing High-Friction Surfacing (HFS) refers to the application of materials on road surfaces to improve skid resistance, particularly in areas prone to accidents, such as intersections, sharp curves, and pedestrian crossings. This specialised surface treatment significantly increases the friction between tires and the road, thereby reducing the risk of skidding. What materials are used in High-Friction Surfacing? There are two main types of material used in HFS, Aggregate and Binder Aggregate: Crushed and specially graded aggregates, such as calcined bauxite or high PSV aggregates, which form the backbone of HFS. Binder: Epoxy or polyurethane resin acts as the binder, ensuring the durability of the surface by securely attaching the aggregate to the road. What are the benefits of High-Friction Surfacing: Enhanced Safety: Proven to be a crucial safety measure, especially in accident-prone areas like schools and busy junctions. Improved skid resistance helps vehicles maintain better control, reducing the likelihood of skidding and collisions. Weather Resistance: HFS maintains skid resistance even in wet conditions, ensuring consistent safety regardless of weather. Durability and Longevity: High-quality aggregates and durable binders create a robust surface that withstands heavy traffic and the test of time, reducing the need for frequent maintenance. Cost-Effectiveness: While the initial investment may be higher, the long-term benefits in safety, reduced accidents, and lower maintenance costs make HFS a cost-effective solution. Applications of High Friction Surfacing: Road Junctions and Intersections: Commonly applied to reduce skidding risks at intersections and roundabouts. Pedestrian Crossings: Enhances safety in crosswalks with better traction for both pedestrians and vehicles. Hazardous Curves: Strategically applied on sharp curves and bends to mitigate skidding risks. Bus Stops and Railway Crossings: Ensures vehicles can stop or slow down safely in these critical areas. Future Trends and Innovations: Smart Road Technology: Ongoing research explores innovative materials and technologies. Sensors that monitor road conditions and adjust friction properties in real-time hold the potential to revolutionize road safety. Conclusion High-Friction Surfacing stands as a testament to the proactive measures taken in the realm of road safety. Its application goes beyond aesthetics, delving into the core of accident prevention and ensuring that our roadways become spaces where safety takes precedence. As we navigate the twists and turns of modern transportation, High-Friction Surfacing paves the way for a future where every journey is not only efficient but, more importantly, safe for all. Contact Us Call us on 0800 0146 420 and speak to one of our team about our HFS solutions.

Believe it or not, there are approximately 17 steps from cradle to grave when installing and subsequently decommissioning an EV charging bay. In this blog post we look at the steps on how to get an EV point installed. The initial steps such as feasibility assessment, site planning, design, electrical infrastructure assessment, permits and approvals can take months before work installing bays can begin. Once the type of charging point has been selected the installation contractor then gets to work. But what does installing an EV charging point actually entail? It is a fairly straightforward process (in most cases!!). Types of charging points Depending on the requirement there are three types of chargers, each with their benefits for installing. Level 1 Charging Level 1 chargers typically use a standard 120-volt household outlet. Installation is relatively simple and may take a few hours. Level 2 Charging Level 2 chargers require a 240-volt power source. Installation time can range from a few hours to a day, depending on the ease of access to electrical infrastructure and the distance from the power source. DC Fast Charging DC fast chargers, which provide high-power charging, can be more complex to install. Installation may take a day or more, involving specialized electrical work and coordination with utility providers. Site Preparation Before the actual charger installation, site preparation may be required, including the installation of concrete pads, trenching for electrical conduits, and ensuring proper drainage. Site preparation can add additional time, depending on the complexity of the work, especially if there are any unexpected finds -tree roots, old pipes and even WW2 bombs! Depending on location and proximity to major roads, traffic management may be required, especially if multiple bays are being installed. Surface Preparation Before marking, the pavement or surface needs to be clean and in good condition. Surface preparation can include cleaning, sweeping, and, if necessary, repainting the base layer. Hydroblasting may be used to remove old road markings, or areas may need to be resurfaced completely. Line Marking The actual line marking process can vary in time depending on the size of the area, the complexity of the markings, and the type of equipment used. In general, line marking for a standard parking space may take a few minutes per space. Additional consideration may be needed for directional arrows or lighting. Drying Time The type of paint or marking material used will impact drying time. Some paints may require a few minutes to dry, while others may need several hours. Quick-drying solutions may expedite the process. Curing Time For more durable markings, there may be a curing time during which the painted lines need to set and harden. This can add additional time to the overall process. Civils works There may be a requirement for some minor civils works to be completed such as drain and ironwork re-instatement, kerbing, patching or even landscaping and drainage. Weather Conditions You just can’t rely on the British weather, something we like to talk about but weather conditions, such as rain or extreme temperatures, can impact line marking. In adverse weather, additional precautions or delays may be necessary. Considering these factors, the total time for installing an EV charge point and completing line marking can range from a single day for simpler installations to multiple days for more complex projects. Coordination with skilled professionals, including electricians and line marking specialists, is essential to ensure a smooth and efficient process. Additionally, obtaining any necessary permits and approvals may influence the overall timeline. Why THB? THB has a vast amount of experience installing EV bays, from initial consultation to full installation, we provide a complete solution.  Our team of experts will work with you to ensure your EV bay requirements are fulfilled on time and on cost.

Maintaining the infrastructure of our roadways is an ongoing challenge faced by around the UK from county councils to Highways England. As roads age and wear down due to constant traffic and changing weather conditions, authorities must decide on the most efficient and cost-effective methods of rehabilitation. In recent years, road retexturing has emerged as a compelling alternative to traditional resurfacing techniques. In this blog post, we will explore why road retexturing is gaining popularity as a more cost-effective option for extending the lifespan of roads. Understanding Road Retexturing Road retexturing involves the application of specialised materials to the existing road surface, enhancing its texture and skid resistance. Unlike resurfacing, which typically requires the removal and replacement of the entire road surface, retexturing focuses on improving the existing pavement without major reconstruction. Preservation of Existing Infrastructure One of the key advantages of road retexturing is its ability to preserve the existing road structure. Rather than tearing up the entire road and starting from scratch, retexturing allows municipalities to work with the current pavement or road, making it a more environmentally friendly option. This process minimises waste and reduces the need for raw materials, contributing to a more sustainable approach to road maintenance. Reduced Construction Time Road retexturing is a quicker process compared to resurfacing. Traditional resurfacing methods can disrupt traffic flow for an extended period, causing inconvenience to commuters and businesses. Retexturing, on the other hand, typically requires less time for completion, allowing for faster rehabilitation with minimal disruption to the community. Lower Material Costs The cost of materials is a significant factor in any infrastructure project. Road retexturing often utilises specialised surface treatments and coatings that are more cost-effective than the extensive materials required for resurfacing. This makes it a financially prudent choice for budget-conscious councils looking to make the most of their budget allocations for road maintenance. Improved Skid Resistance and Safety Retexturing not only extends the life of the road but also enhances safety by improving skid resistance. The application of high-friction surface treatments during retexturing can significantly reduce the likelihood of accidents, providing an added layer of safety for motorists and pedestrians. High friction Surfacing or HFS, is often laid on high accident areas, such as junctions, outside schools and sweeping bends. HFS can be finished in many colours making it more visual and driver-aware. Long-Term Savings While the upfront cost of road retexturing may be lower than resurfacing, the long-term savings are equally compelling. The extended lifespan of the road, combined with reduced maintenance requirements, translates to lower overall costs over time. Municipalities can allocate their resources more efficiently, focusing on other critical infrastructure needs. Conclusion The choice between road retexturing and resurfacing is a critical decision that can impact budgets, timelines, and community satisfaction. As we navigate the challenges of maintaining our infrastructure, it’s clear that road retexturing emerges as a cost-effective, sustainable, and efficient solution for preserving and enhancing our roadways. By embracing innovative approaches like road retexturing, municipalities can pave the way for a more resilient and economically viable future. Contact the team at THB to discuss how retexturing your existing roads can save time and money.