SCIFs are at the forefront of protecting classified and proprietary information. These highly secure environments are designed with detailed precision and are increasingly being employed in the military and certain commercial industries, particularly in areas involving government or defense-related work.
SCIFs require robust security measures that can vary widely from organization to organization. These can range from safeguarding classified projects to protecting sensitive communication systems. Any information related to national security or possessing national sensitivity can be protected through the use of a SCIF.
Originally developed to prevent spies from gathering sensitive data, SCIFs are intrusion-resistant spaces that keep classified information secure from unauthorized access and espionage. However, as industries such as aerospace and defense contractors increasingly handle sensitive data, the principles behind military-grade SCIFs also translate to many different sectors. This expansion underscores the growing importance of protecting proprietary information, from intellectual property to strategic business plans.
“There is a tremendous amount of industrial and government espionage going on that isn’t discussed or made public,” says David Findlay, associate architect at Burns & McDonnell. “It’s getting more and more complex to protect the info that you need to protect.”
Defense contractors and aerospace companies often require this type of high-level security for warehouses and for other facilities. Because commercial developers may lack detailed understanding of SCIF requirements and features, costly redesigns can be avoided by involving security specialists early in the planning phase of such assets.
The Anatomy of a SCIF
Designing a SCIF is a complex task that requires careful planning and collaboration among various disciplines. Engineers and security specialists must think through every aspect, from the shape of the building to the placement of heating, ventilation and air conditioning (HVAC) ducts and penetrations.
The need for transient electromagnetic pulse emanation standard (TEMPEST) measures further complicates the design. These measures see that electronic emissions are either contained within the SCIF or blocked from entering, with the intent of preventing data breaches. This is especially challenging in spaces such as scientific laboratories that have secure servers or computer systems.
As technology evolves, so do the threats to information security. Modern SCIFs must guard against sophisticated espionage tactics, including the use of artificial intelligence and advanced hacking techniques. The ever-present threat of industrial and governmental espionage adds to the urgency of developing robust security measures.
One significant challenge is the potential threat posed by modern communication devices. For example, smartphones have continued to boost their capacity for capturing information. Drones also introduce an increased security risk. Such complexities require constant vigilance and innovation in SCIF design and implementation.
“The complexities of designing a SCIF are astounding,” says Betsy M. Perry, senior associate architect at Burns & McDonnell. “Our teams are constantly thinking of innovative solutions when they run into unique situations within the development stage of a SCIF.”