A studio campus is more than a collection of sound stages. It is a production ecosystem — a site where multiple productions can operate simultaneously, where equipment and crew move efficiently between stages and support spaces, and where the physical infrastructure supports the full range of activities that a modern production requires. Getting the campus design right from the start determines whether the facility attracts and retains major productions.
Site selection
Site selection determines what the campus can become
The most important design decision for a studio campus is made before a single building is drawn: site selection. The site determines utility availability, access, expansion capacity, and the ambient noise environment that will govern acoustic specifications. A site selected primarily on land cost — without evaluating these factors — will produce a campus that is either acoustically compromised, operationally constrained, or both.
Utility infrastructure is the first filter. A multi-stage campus requires 4,000–8,000 amps of three-phase electrical service, high-capacity water service for fire suppression and production use, and fiber connectivity for production data and streaming workflows. The cost and timeline to bring utility infrastructure to a site varies enormously — from a few weeks and modest cost for a site adjacent to existing infrastructure, to 12–18 months and $500,000–$2 million for a remote site requiring new utility extensions.
Acoustic environment is the second filter. The ambient noise level at the site — measured in dB(A) at the building envelope — directly determines the acoustic specification required to achieve a given interior noise criterion. A site adjacent to a major highway, flight path, or industrial facility requires a more expensive acoustic envelope than a site in a quiet industrial park. The cost difference can be $10–$20 per square foot of stage area — significant at campus scale.
Campus organization
The stage village: clustering for operational efficiency
The most operationally efficient campus layout clusters stages in a tight grouping — the stage village — with shared support infrastructure running along a central spine. This arrangement minimizes the distance that crew, equipment, and materials travel between stages and support spaces, reduces the length of utility runs, and creates a coherent campus identity that is legible to productions evaluating the facility.
Each stage in the cluster should have its own drive-in access from the exterior, independent of the other stages. Productions operating simultaneously on adjacent stages must be able to receive deliveries, move equipment, and manage their own logistics without interfering with each other. Shared loading courts or single-access configurations create operational conflicts that productions find unacceptable.
The support spine — the building or series of buildings that houses production offices, wardrobe, makeup, hair, props, and equipment staging — should run parallel to the stage cluster, connected by a covered walkway. The walkway is not a luxury; it is an operational necessity in markets with extreme heat, rain, or cold. In Phoenix, an uncovered connection between the stage and the production office is unusable for significant portions of the year.
Stage specifications
A campus needs a range of stage sizes
A campus with stages of identical size is less versatile than one with a range. The most productive campus configurations include at least one large stage (30,000–40,000 square feet) capable of supporting major feature and streaming production, two or three medium stages (15,000–25,000 square feet) for episodic television and commercial production, and one or two smaller stages (8,000–12,000 square feet) for inserts, pickups, and smaller productions that do not require a full-size stage.
The large stage anchors the campus — it is the facility that attracts the productions that drive the economic activity that fills the smaller stages. A campus without a large stage is limited to the mid-budget market and cannot compete for the productions that generate the most significant economic impact. The large stage is also the most expensive to build and the most difficult to fill consistently; the smaller stages provide the utilization base that makes the campus financially viable.
Virtual production infrastructure — LED volume stages — represents a growing segment of the market that campus developers should plan for even if they do not build it in the first phase. An LED volume stage requires a large, acoustically controlled, structurally capable building with very high electrical service capacity. The structural and utility requirements are similar to a conventional sound stage; the difference is the interior fit-out. Designing a stage shell that can accommodate LED volume infrastructure in a future phase is a low-cost decision at the time of construction.
Support infrastructure
Support spaces are not optional — they are the product
Productions do not rent stages; they rent production ecosystems. A stage without adequate support infrastructure — production offices, wardrobe, makeup, hair, props, equipment staging, and catering — is not a competitive facility. The support spaces are what allow a production to operate efficiently; their absence forces productions to bring temporary infrastructure (trailers, tents, portable offices) that degrades the campus environment and signals to future productions that the facility is not fully equipped.
Production office space should be designed for flexibility — open floor plans with high-density data and power infrastructure that can be configured for different production sizes and workflows. A 20,000-square-foot production office building adjacent to a three-stage cluster is a reasonable starting point. The offices should be designed to the same acoustic standard as the stages — productions conduct sensitive creative conversations in these spaces, and sound transmission between adjacent production offices is a significant operational problem in poorly designed facilities.
Equipment staging and prep areas are consistently underbuilt in first-generation studio campuses. A production arriving at a facility needs space to receive, inspect, and stage equipment before it moves onto the stage. This space — typically 5,000–10,000 square feet per stage — must be at grade, accessible by truck, and adjacent to the stage drive-in. It is not glamorous, but its absence creates operational bottlenecks that productions remember and discuss with other productions.
Productions do not rent stages. They rent production ecosystems — and the support infrastructure is what makes the ecosystem work.
Phasing strategy
Design for phase two before you build phase one
Every successful studio campus was designed for expansion from the beginning. The site plan, utility infrastructure, and support building layouts of phase one should anticipate the footprint of phase two — even if phase two is five years away. Utility infrastructure sized for the full campus build-out costs marginally more than infrastructure sized for phase one alone; retrofitting undersized utility infrastructure after phase two is underway is expensive and disruptive.
The phasing sequence matters. The most common successful sequence is: large anchor stage plus support building in phase one, establishing the campus identity and attracting the productions that validate the market; medium stages in phase two, adding utilization capacity and diversifying the production mix; smaller stages and specialized facilities (LED volume, post-production, screening rooms) in phase three as the campus matures and the production ecosystem deepens.
Pre-engineered steel construction is particularly well-suited to phased campus development. Each phase can be designed and erected independently, with connections to the existing campus infrastructure made at the time of construction. The speed of erection — 8–14 weeks for a stage shell — means that phase two can be delivered quickly once phase one has demonstrated market demand, without the 18–24 month lead times associated with conventional construction.
Full Metal Buildings
Planning a studio campus in the Southwest
Full Metal Buildings works with developers, investors, and municipalities on pre-engineered steel building systems for studio campus development. From single-stage facilities to multi-stage campuses, we can help you understand the structural requirements, phasing options, and construction economics before you commit to a site.