Aircraft Hangar, Terminals, SRE Buildings

Civil engineering plays a critical role in airport infrastructure, supporting the planning, design, and construction of key facilities such as aircraft hangars, airport terminals, and Snow Removal Equipment (SRE) buildings. These structures must meet demanding operational, safety, and efficiency standards unique to the aviation environment.

The Role of Civil Engineering in Aviation

Aviation civil engineers are responsible for designing infrastructure that supports safe and efficient aircraft and passenger operations. It involves an intricate blend of multiple different disciplines of civil engineering, architectural design, and planning to accommodate the unique needs of aircraft operations. From the vast expanse of an aircraft hangar to the bustling environment of an airport terminal, aviation engineers must consider numerous factors to create structures that meet the rigorous demands of the aviation industry.

Aircraft Hangars: Protecting the Fleet

Aircraft hangars are specialized buildings designed to house and protect aircraft from the elements when they are not in operation. These structures must be engineered with precision to accommodate the size and specifications of different types of aircraft, as well as provide ample space for maintenance and repair activities.

Design and Structure

The design of an aircraft hangar typically involves large, clear span spaces that are free of internal columns. This allows for easy maneuverability of aircraft within the hangar and maximizes usable space. The structural framework is often made of steel due to its strength and ability to span large distances without intermediate support.

Most modern hangars are built using Pre-Engineered Metal Building (PEMB) systems. PEMBs are especially well-suited for hangars because they are designed and fabricated off-site, then assembled quickly on location. This approach reduces construction time, lowers costs, and ensures consistent quality. PEMB systems also make it easier to achieve the large clear spans required for aircraft storage, while allowing flexibility for future expansion or customization.

Doors and Access

Hangar doors are a major design consideration. Common types include sliding, bi-fold, and hydraulic doors. The selection depends on aircraft size, frequency of use, wind conditions, and available apron space. For smaller general aviation airports, reliability and ease of operation are especially important, as many users are individual owners rather than full-time staff. Engineers must ensure that these doors are reliable and can be operated smoothly and safely.

Safety and Regulations

Engineers must adhere to strict safety regulations, building codes, and FAA guidance when designing aircraft hangars. This includes fire protection systems, ventilation, and handling of hazardous materials. Every aspect of the hangar’s design and construction is scrutinized to ensure the safety of personnel and aircraft.

Airport Terminals: The Hub of Passenger Movement

Airport terminals are the heart of an airport’s operations, serving as the central point. Engineering and Planning in terminal design focuses on creating a seamless flow for uses of the Airport. At smaller airports, there facilities often serve pilots, passenger, flight schools, and Fixed Base Operators (FBOs).

Efficient Layout

Terminal layouts focus on simplicity and functionality. Spaces may include pilot lounges, flight planning areas, offices, restrooms, and passenger waiting areas. The design should be intuitive and easy to navigate, without complexity.

Technology Integration

Modern airport terminals incorporate advanced technology to enhance passenger experience and operational efficiency. This includes automated weather briefing stations, communication systems, security features, and administrative tools. In some cases, access control and surveillance systems are included to enhance safety. Engineers must integrate these technologies into the terminal design in a way that is both functional and aesthetically pleasing.

Sustainability

Sustainable design is becoming more common at airports, especially for publicly funded projects. Engineers play a larger role in this, as terminals are being engineered to reduce energy consumption, minimize waste, and utilize renewable energy sources. Features such as natural lighting, energy-efficient HVAC systems, and green roofing contribute to a terminal’s sustainability profile.

SRE Buildings: Keeping Airports Operational

SRE buildings are dedicated facilities that house the equipment necessary for airport maintenance, particularly snow removal. These buildings are essential for airports located in regions that experience heavy snowfall, ensuring that runways and taxiways remain clear and safe for aircraft operations.

Specialized Design Requirements

SRE buildings must accommodate a wide range of heavy-duty vehicles and equipment, including snowplows, brooms, blowers, and de-icing trucks, as well as the materials needed to keep airfield surfaces operational. The design must include large vehicle bays, storage areas for chemicals and materials, and maintenance workshops. Engineers and airport planners must also consider the ease of access to the airfield for quick deployment of snow removal equipment.

Durability and Resistance

These buildings must withstand harsh weather conditions, including heavy snow, ice, and temperature extremes. Durable materials, proper insulation, and roof designs that shed snow effectively are key considerations.

Operational Efficiency

Efficient circulation is critical. Equipment must be able to enter and exit quickly, often in low-visibility conditions. Engineering and airport planning play a large role as site placement is also important. SRE buildings are typically located with direct access to runways and taxiways to minimize response time.

Delivering Airport Infrastructure

Aviation civil engineers are responsible for translating complex requirements into functional designs that meet the diverse needs of the aviation industry. They collaborate with architects, planners, and airport authorities to ensure that hangars, terminals, and SRE buildings are safe, efficient, and aligned with the airport’s overall strategic goals.

Innovation and Adaptation

Civil engineers must stay current with evolving materials, construction methods, and industry standards. At airports, innovation often focuses on practical solutions that improve efficiency and reduce costs. Flexibility is also key, as projects frequently evolve due to funding changes, regulatory updates, or shifting airport needs.

Project Management

Delivering airport projects requires strong coordination of design, permitting, and construction. Engineers must manage budgets, schedules, and regulatory requirements, including FAA and state funding guidelines. At airports, careful planning is essential to maximize limited resources and minimize disruptions to ongoing operations.

Continuous Learning

The field of aviation and civil engineering is ever-evolving, and engineers must engage in continuous learning to maintain their expertise. This includes staying updated on new materials, construction techniques, and regulatory changes that impact the design and operation of airport structures.

Where We Make An Impact

The aviation sector is constantly evolving, and aviation civil engineers must stay informed on changes that impact airport infrastructure. This includes updates to FAA guidance, new construction materials, and emerging best practices in design and sustainability. Ongoing learning ensures that airport facilities remain safe, compliant, and capable of supporting future growth, while continuing to meet the day-to-day needs of airport users.

Aircraft Hangar, Terminals, SRE Buildings 

Civil engineering plays a critical role in airport infrastructure, supporting the planning, design, and construction of key facilities such as aircraft hangars, airport terminals, and Snow Removal Equipment (SRE) buildings. These structures must meet demanding operational, safety, and efficiency standards unique to the aviation environment.

The Role of Civil Engineering in Aviation

Aviation civil engineers are responsible for designing infrastructure that supports safe and efficient aircraft and passenger operations. It involves an intricate blend of multiple different disciplines of civil engineering, architectural design, and planning to accommodate the unique needs of aircraft operations. From the vast expanse of an aircraft hangar to the bustling environment of an airport terminal, aviation engineers must consider numerous factors to create structures that meet the rigorous demands of the aviation industry.

Aircraft Hangars: Protecting the Fleet

Aircraft hangars are specialized buildings designed to house and protect aircraft from the elements when they are not in operation. These structures must be engineered with precision to accommodate the size and specifications of different types of aircraft, as well as provide ample space for maintenance and repair activities.

Design and Structure

The design of an aircraft hangar typically involves large, clear span spaces that are free of internal columns. This allows for easy maneuverability of aircraft within the hangar and maximizes usable space. The structural framework is often made of steel due to its strength and ability to span large distances without intermediate support.

Most modern hangars are built using Pre-Engineered Metal Building (PEMB) systems. PEMBs are especially well-suited for hangars because they are designed and fabricated off-site, then assembled quickly on location. This approach reduces construction time, lowers costs, and ensures consistent quality. PEMB systems also make it easier to achieve the large clear spans required for aircraft storage, while allowing flexibility for future expansion or customization.

Doors and Access

Hangar doors are a major design consideration. Common types include sliding, bi-fold, and hydraulic doors. The selection depends on aircraft size, frequency of use, wind conditions, and available apron space. For smaller general aviation airports, reliability and ease of operation are especially important, as many users are individual owners rather than full-time staff. Engineers must ensure that these doors are reliable and can be operated smoothly and safely.

Safety and Regulations

Engineers must adhere to strict safety regulations, building codes, and FAA guidance when designing aircraft hangars. This includes fire protection systems, ventilation, and handling of hazardous materials. Every aspect of the hangar’s design and construction is scrutinized to ensure the safety of personnel and aircraft.

Airport Terminals: The Hub of Passenger Movement

Airport terminals are the heart of an airport’s operations, serving as the central point. Engineering and Planning in terminal design focuses on creating a seamless flow for uses of the Airport. At smaller airports, there facilities often serve pilots, passenger, flight schools, and Fixed Base Operators (FBOs).

Efficient Layout

Terminal layouts focus on simplicity and functionality. Spaces may include pilot lounges, flight planning areas, offices, restrooms, and passenger waiting areas. The design should be intuitive and easy to navigate, without complexity.

Technology Integration

Modern airport terminals incorporate advanced technology to enhance passenger experience and operational efficiency. This includes automated weather briefing stations, communication systems, security features, and administrative tools. In some cases, access control and surveillance systems are included to enhance safety. Engineers must integrate these technologies into the terminal design in a way that is both functional and aesthetically pleasing.

Sustainability

Sustainable design is becoming more common at airports, especially for publicly funded projects. Engineers play a larger role in this, as terminals are being engineered to reduce energy consumption, minimize waste, and utilize renewable energy sources. Features such as natural lighting, energy-efficient HVAC systems, and green roofing contribute to a terminal’s sustainability profile.

SRE Buildings: Keeping Airports Operational

SRE buildings are dedicated facilities that house the equipment necessary for airport maintenance, particularly snow removal. These buildings are essential for airports located in regions that experience heavy snowfall, ensuring that runways and taxiways remain clear and safe for aircraft operations.

Specialized Design Requirements

SRE buildings must accommodate a wide range of heavy-duty vehicles and equipment, including snowplows, brooms, blowers, and de-icing trucks, as well as the materials needed to keep airfield surfaces operational. The design must include large vehicle bays, storage areas for chemicals and materials, and maintenance workshops. Engineers and airport planners must also consider the ease of access to the airfield for quick deployment of snow removal equipment.

Durability and Resistance

These buildings must withstand harsh weather conditions, including heavy snow, ice, and temperature extremes. Durable materials, proper insulation, and roof designs that shed snow effectively are key considerations.

Operational Efficiency

Efficient circulation is critical. Equipment must be able to enter and exit quickly, often in low-visibility conditions. Engineering and airport planning play a large role as site placement is also important. SRE buildings are typically located with direct access to runways and taxiways to minimize response time.

Delivering Airport Infrastructure

Aviation civil engineers are responsible for translating complex requirements into functional designs that meet the diverse needs of the aviation industry. They collaborate with architects, planners, and airport authorities to ensure that hangars, terminals, and SRE buildings are safe, efficient, and aligned with the airport’s overall strategic goals.

Innovation and Adaptation

Civil engineers must stay current with evolving materials, construction methods, and industry standards. At airports, innovation often focuses on practical solutions that improve efficiency and reduce costs. Flexibility is also key, as projects frequently evolve due to funding changes, regulatory updates, or shifting airport needs.

Project Management

Delivering airport projects requires strong coordination of design, permitting, and construction. Engineers must manage budgets, schedules, and regulatory requirements, including FAA and state funding guidelines. At airports, careful planning is essential to maximize limited resources and minimize disruptions to ongoing operations.

Continuous Learning

The field of aviation and civil engineering is ever-evolving, and engineers must engage in continuous learning to maintain their expertise. This includes staying updated on new materials, construction techniques, and regulatory changes that impact the design and operation of airport structures.

WHERE WE MAKE AN IMPACT