A broadcast engineer for a regional TV station in Denver was driving to a remote satellite uplink site with a $14,000 microwave transmitter in the back of his truck. On a mountain road with snow and ice, he hit a patch of black ice and the truck slid into a ditch. The transmitter was in a standard road case with foam padding. When he opened the case at the site, the transmitter was fine — but the case had cracked across the bottom panel, and one caster had snapped off. The gear survived, but the case didn’t. He couldn’t wheel it the last 50 meters from the truck to the uplink site. He ended up carrying it between two engineers, with the transmitter still inside a broken case. A $280 case failure turned into a 90-minute delay on a live remote broadcast.

Broadcast, audio, and video equipment exists in a brutal transport environment. A typical field production case gets loaded and unloaded from trucks, stacked in equipment rooms, wheeled across parking lots and grass fields, and sometimes thrown into aircraft cargo holds. The gear inside — cameras, lenses, switchers, monitors, transmitters, audio interfaces — is often worth $50,000 to $200,000. The case that protects it should be engineered for that reality, not for a studio shelf.

What Actually Happens to Broadcast Cases in the Field

After building cases for broadcast and production companies for over a decade, we’ve seen every failure mode. Here’s the data:

• Caster and wheel failure (28%) — The #1 failure point on any rolling case. Standard injection-molded wheels crack on rough ground, bearings seize in cold weather, and casters pull out of the case base. For field work, you need 100mm+ rubber or polyurethane wheels with sealed bearings and reinforced mounts.
• Corner and panel cracks (24%) — Road cases take impacts that consumer cases aren’t designed for. A case dropped off the back of a truck at 0.5m onto asphalt doesn’t just scratch — the panel flexes, the corner joints flex, and eventually something cracks. Standard 3mm aluminum panels work for studio use but not for field touring.
• Foam compression and equipment shift (18%) — Production cases get opened and closed dozens of times per project. The foam compresses, the equipment starts moving, and eventually a connector gets bent or a lens gets bumped. Pluck foam compresses faster than CNC-machined EVA.
• Latch and handle failure (12%) — Cases that weigh 30-80kg get yanked, dropped, and slammed. Standard draw latches wear out. Handles pull out. The handle-to-case joint is critical — it needs to be bolted or welded, not riveted.
• Hardware rust and corrosion (9%) — Outdoor shoots mean rain, sweat, humidity. Zinc-plated hardware rusts. After a season or two, latches get stiff, hinges squeak, and labels fall off. Stainless steel hardware costs more upfront but eliminates this problem.
• Cable and connector damage (9%) — XLR, BNC, HDMI, SDI, and fiber connectors all protrude from equipment. Without proper foam recesses, they get crushed or bent when the case is closed or stacked.

Case Study: Remote Production Truck Kit Standardization

Camera and Lens Protection: The Details Matter

Camera gear is the most damage-sensitive equipment in any production kit. A cinema lens can cost $8,000-$25,000, and a blemish on the front element or a knocked element alignment can mean a trip to the factory for recalibration. Key protection requirements:

• Lens cavities — Each lens needs its own CNC-machined EVA cavity with the lens held by the barrel, not by the front or rear element. The foam should have 10mm clearance over the front element so the case lid doesn’t press on the glass
• Body cavities — Camera bodies need their own cavities with space for the battery grip and viewfinder. Don’t try to pack a body with its lens attached — the lens mount is a weak point
• Monitor protection — External monitors have fragile LCD panels. The foam should have a recess over the screen, and the lid should have a foam pad that contacts the camera body, not the monitor
• Battery management — Batteries should be in individual labeled slots, not loose in a compartment. A loose battery rolling around in a case can damage a lens or scratch a camera body
• Filter and accessory organization — ND filters, polarizers, and other glass accessories need individual padded slots. A scratched $500 ND filter is an expensive mistake caused by sloppy packing

Audio Equipment Protection

Audio gear has its own vulnerability profile. Mixers, recorders, and wireless mic systems are precision instruments with faders, knobs, and connectors that can be damaged by compression or impact:

• Fader and knob protection — If the mixer has faders protruding from the surface, the foam lid needs clearance so nothing presses on the faders during transit. Pressed faders can stick or go out of calibration
• Wireless mic receivers — Antenna connectors are fragile. Each receiver needs a foam cavity with antenna protection, or antennas should be removed and stored separately
• Headphone protection — Headphones should be in a dedicated compartment with the ear cups supported. Don’t just toss them in with cables
• Cable organization — XLR and TRS cables should be coiled (not rolled) in divided compartments. Tangled cables are a setup-time killer and can damage connectors

Specification Guide: Broadcast and Production Cases

Case Weight and Transport Considerations

Broadcast cases have a weight problem. A fully loaded camera case can weigh 25-35kg. An audio mixer case can weigh 40-60kg. When you’re loading gear from a truck to a remote location, every kilogram matters. Key considerations:

• ATA/300 shipping standards — If you’re shipping cases by air freight or cargo, they need to meet ATA Spec 300 Category 1 standards. This includes drop tests, vibration tests, and stacking tests. A case that survives field use doesn’t necessarily survive airline cargo handling
• Check airline baggage limits — Most airlines charge overweight fees above 32kg. If your case exceeds this, you’re paying $200-500 per flight in excess baggage fees. Design cases to stay under 32kg packed, or use two smaller cases instead of one large one
• Stacking strength — Equipment rooms stack cases on top of each other. A field case should support at least 4x its own weight on the lid without deforming. This is another reason 5-6mm panels are preferred for field use
• ID and labeling — Every case should have an engraved aluminum ID plate with case number, contents list, and handling instructions. Adhesive labels fall off. Engraved plates survive for years

We’ve built cases for network TV affiliates, streaming production companies, live event producers, and corporate AV teams. The common thread is always the same: the case has to survive the truck, the parking lot, the grass field, and the aircraft hold — while the equipment inside survives untouched.

A solar EPC contractor installing a 5MW utility-scale project in Nevada received a shipment of 400 microinverters — and found that 18 of them had cracked internal circuit boards from transit damage. Each inverter cost $185, but the real cost was the installation delay: those 18 units had to be reordered, holding up a 12-person crew for two days at $4,500/day in labor and equipment. Total cost of that one transit damage incident: $9,330. The cases that failed were the manufacturer’s standard cardboard-and-foam packaging — adequate for palletized freight, useless for the last-mile transport from the staging yard to the array field.

Renewable energy equipment has a unique transport profile: it’s expensive, fragile, often oversized, and gets handled by multiple parties across multiple transport modes. A PV panel might travel by container ship, rail, flatbed truck, and finally a pickup truck to a remote field site. Each transfer point is a damage opportunity. This guide covers what you need to know about protecting solar panels, inverters, battery storage systems, and wind turbine components during transport and field deployment.

The Real Cost of Transit Damage in Solar Projects

Industry data consistently shows that 2-5% of solar equipment arrives at installation sites with transit-related damage. For a typical 5MW project, that’s:

• PV panels: 2-4% microcrack rate from transit. Microcracks aren’t always visible on arrival — they show up as hot spots 6-18 months later, causing warranty claims and module replacement
• Inverters: 1-3% internal component damage. The power electronics inside string inverters and central inverters are shock-sensitive, and the damage often isn’t detectable until commissioning
• Battery systems: 1-2% cell damage from shock and vibration. Lithium-ion cells are particularly sensitive to mechanical stress, and damaged cells can create thermal runaway risks
• Mounting hardware: 5-8% loss or damage from loose packaging. Clamps, bolts, and grounding lugs are small, easy to lose, and cause installation delays

PV Panel Transport: What Actually Causes Microcracks

PV panels are rated to withstand 5400Pa load (IEC 61215), but that rating is for uniform snow and wind loads on an installed panel. Transit damage is different — it’s point loads, edge impacts, and vibration. The main failure modes:

• Edge impact during loading/unloading — A panel corner hitting a truck bed rail at 1m/s can create a microcrack that propagates over thermal cycling. Panels should never be carried by the frame alone — use suction cups or panel carriers
• Vibration on flatbed trucks — Continuous 10-50Hz vibration on highways causes cell fatigue. Panels stacked flat on a truck bed amplify vibration because the stack acts as a tuned mass. Vertical stacking in custom racks reduces vibration transfer by 60-70%
• Thermal stress in shipping containers — A container in summer sun can reach 75°C inside. The panel frame (aluminum) and the glass (silicon) expand at different rates, creating stress at the bond line. If the panel is also under mechanical load from poor packaging, this stress can initiate microcracks
• Stacking overload — Manufacturers specify maximum stack height (typically 25-30 panels per stack). Exceeding this causes the bottom panels to bow, creating cell stress. We’ve seen stacks of 50+ panels on job sites — the bottom 10 panels will have measurable microcracks

Inverter and Power Electronics Protection

Inverters are the most damage-sensitive component in a solar installation. A string inverter contains:

• DC/AC converter boards with surface-mount components (shock-sensitive)
• Electrolytic capacitors (vibration-sensitive — leads can fatigue and break)
• Heat sinks and magnetics (heavy components that can tear PCB traces under shock)
• Display and HMI panels (fragile, exposed on the unit face)
• Connectors and terminals (can bend or break on impact)

For inverter transport, we recommend:

Battery Energy Storage System (BESS) Transport

Lithium-ion battery systems for solar storage have the most stringent transport requirements because of the thermal runaway risk. Key considerations:

• UN3480/UN3481 compliance — Lithium-ion batteries shipped by themselves (UN3480) or with equipment (UN3481) require specific packaging, labeling, and documentation. Your case supplier should understand these requirements — not just build a box
• State of charge (SOC) limits — Batteries must ship at ≤30% SOC for air transport, ≤50% for sea transport. The case shouldn’t have features that could accidentally activate the battery
• Thermal management — If a cell goes into thermal runaway, the case should contain the event and prevent propagation to adjacent cells. We use intumescent coatings and ceramic fiber insulation for battery transport cases
• Pressure relief — Battery cases need pressure relief vents to prevent case rupture from gas buildup during a thermal event
• Handling — BESS units can weigh 100-500kg. Cases need forklift pockets, certified lifting points, and clear weight labeling

Wind Turbine Component Transport

Wind turbine components are the largest and most challenging items in renewable energy transport. While we don’t build cases for 60-meter blades, we do build custom cases for:

• Pitch bearings and yaw drives — Heavy (200-800kg), precision-machined, and easily damaged if the bearing surfaces contact each other. We use machined wood or aluminum cradles with EVA lining
• Converter cabinets and transformers — Shock-sensitive power electronics in large, heavy enclosures. Custom cases with elastomer mounts and reinforced bases
• Blade repair kits and tools — Field repair teams need organized, portable cases for epoxy, tape, sanding tools, and inspection equipment
• Condition monitoring sensors — Vibration and temperature sensors are delicate, calibrated instruments that need individual foam cavities
• Personal safety equipment for tower climbing — Harnesses, lanyards, helmets, and rescue kits need organized, weather-resistant cases

What to Specify for Renewable Energy Equipment Cases

Whether you’re an EPC contractor, installer, or equipment manufacturer, these are the specifications that matter:

1. Equipment dimensions and weight — Exact measurements, not approximate. Include protruding connectors, displays, and fragile components
2. Transport mode — Air freight requires different construction than sea freight. Last-mile pickup truck transport is the most abusive mode — design for that, not for the container ship
3. Temperature range — Desert field sites can hit 70°C inside a case. Arctic installations can be -40°C. Foam, gaskets, and coatings are all temperature-rated
4. Handling frequency — A case that ships once from factory to site needs different construction than one that goes out with an installation crew every day
5. Organization needs — If the case holds multiple components (inverters + mounting hardware + tools), specify how you want them organized. CNC-machined foam with labeled compartments saves 15-20 minutes per installation
6. Branding and labeling — Engraved aluminum nameplates with company logo, equipment ID, and handling instructions. Adhesive labels fall off in field conditions

A commercial production company in Chicago was shooting a national ad campaign on location in Utah. The camera package included two $12,000 cinema cameras, four lenses (including a $14,000 anamorphic prime), a matte box, follow focus, wireless monitor, and a day’s worth of accessories. It was all packed into a single padded compartment bag — not a hard case. On a remote road outside Moab, the truck carrying the gear hit a cattle grid at 50 mph. The bag bounced off the seat and landed on the floorboard. When they unloaded at the location, one camera had a cracked sensor (replacement: $4,800), two lenses had elements shifted (recalibration: $2,200), and the matte box was bent beyond repair ($800). Total damage: $7,800. The production was delayed 3 days while replacement gear was flown in. The bag that should have been a hard case cost $120. The damage it allowed cost 65 times that.

Film and video production equipment is among the most valuable gear that gets transported routinely. A single cinema camera body can cost $10,000-$25,000. A set of good glass runs $30,000-$80,000. Support gear — matte boxes, follow focus, monitors, wireless transmission, lighting — adds another $20,000-$50,000. And all of it gets thrown into vehicles, loaded onto trucks, wheeled across parking lots, and sometimes checked as airline baggage. The case that carries this gear is the single most important piece of insurance on the set.

What Actually Damages Film and Video Gear on Location

After building cases for independent filmmakers, commercial production houses, and streaming series crews, the failure patterns are consistent:

• Lens element damage (27%) — The most expensive and most common damage. Lenses get bumped in the case, knocked against other gear, or the case lid presses on the front element when the foam compresses. A scratched or shifted element is a factory repair — $1,500-$5,000 per lens, and weeks of turnaround
• Camera body damage (22%) — Cinema cameras have precision-machined mounts, sensor assemblies, and internal electronics. A direct impact on the body can shift the lens mount, crack the sensor cover glass, or damage internal cabling. Body repair: $2,000-$8,000
• Monitor and display damage (16%) — On-camera monitors, field monitors, and directors’ monitors have fragile LCD panels. A direct impact cracks the glass or damages the backlight. Monitor replacement: $300-$2,000
• Cable and connector damage (14%) — SDI, HDMI, power, and audio connectors are the weak points. If the equipment shifts in the case, cables get crushed or connectors get bent. Replacement cables are cheap ($30-$150) but a bent connector on the camera body is a $500 repair
• Foam compression (12%) — After 20-50 location trips, the foam compresses. The equipment starts moving in the case, and the next hard impact goes straight through to the gear. Most production companies don’t check foam condition until something breaks
• Case structural failure (9%) — Handles pull off, corners crack, wheels break. Cases that get checked as airline baggage take more abuse than cases that stay in a production truck. Structural failures usually happen at the worst possible time — on a remote location

Cinema Camera and Lens Protection: The Details

Camera Body Cavities

Cinema cameras are precision instruments. The cavity should support the camera at the grip and the bottom plate — not by the lens mount, not by the viewfinder, not by the top handle. Key requirements:

• The lens mount should be exposed and not touching foam. A foam pressure on the mount can shift its alignment
• The LCD screen (if flip-out) needs clearance. Either stow the screen and provide a padded slot, or design the cavity so the screen has room to be open
• Batteries and media cards should be in separate labeled slots, not loose in the same cavity as the camera. A loose battery rolling around can scratch the camera body or crack a screen

Lens Cavities

Lenses are the most damage-sensitive items in any production kit. Every cavity should be:

• CNC-machined (not pluck foam) for the exact lens model. A cavity that’s even 2mm too loose lets the lens shift
• Holding the lens by the barrel, never by the front or rear element
• With 10-15mm clearance over the front element so the case lid doesn’t press on the glass
• With the rear cap installed during storage. The rear element is more fragile than the front
• Labeled with the lens focal length and serial number for quick identification on set

Gimbal and Stabilizer Protection

Gimbals (DJI Ronin, Freefly Movi, etc.) have precision motors and gimbals that can be knocked out of alignment. They need:

• A rigid cavity that supports the gimbal arms at multiple points, not just at the handle
• The gimbal in its balanced or transport position (not fully extended)
• Motors covered by foam so they don’t bump against other items
• Removable batteries stored separately

Monitor and Wireless Transmission

Wireless video transmitters and receivers (Teradek, Hollyland, etc.) have antennas that break off easily and small screens that crack. Each unit needs:

• A dedicated cavity with the antenna detached and stored separately (or a flexible antenna stored in a foam loop)
• The screen face protected by a foam pad that contacts the body, not the screen
• Power cables and mounting hardware in a separate compartment

Location Transportation Realities

Film gear doesn’t just sit in a truck. It gets handled, wheeled, flown, and sometimes checked. Here’s what matters for each transport mode:

Production Truck or Van

Cases get stacked, slid across racks, and bumped on every road. Use:

• 5mm minimum aluminum panels (3mm won’t survive stacked cases for long)
• Recessed hardware so cases can stack without handle interference
• Labels on every case with contents and weight
• Case sizes that match standard truck rack dimensions — don’t build a case that doesn’t fit the rack system

Air Travel

Checking camera gear as airline baggage is risky. If you must fly with your kit:

• Use cases that meet airline checked baggage dimensions (typically 158 linear cm — length + width + height)
• Weight limit is 32kg per bag on most international airlines. Over that and you pay excess fees, or the bag gets handled even more roughly
• ATA Spec 300 rated cases for airline travel. These have been through drop and vibration testing that general-purpose cases haven’t
• Put “FRAGILE” and “CAMERA EQUIPMENT” stickers on every side. It doesn’t prevent rough handling but it signals to baggage handlers that the contents matter

Location Foot Traffic

On location, cases get wheeled across parking lots, grass fields, and sometimes over rough terrain. Casters matter:

• 100mm+ rubber or polyurethane wheels, not plastic. Plastic wheels crack on curbs and gravel
• Sealed bearing casters, not open bearings. Open bearings get full of dust and dirt in one location shoot
• Two swivel casters + two fixed casters (not 4 swivels). 4-swivel cases drift on uneven ground

Specification Guide: Film and Video Case Grades

Case Organization: The Setup Time Factor

Damaged gear is the obvious cost. But disorganized cases are a hidden cost that adds up on every shoot:

• Label every compartment — Use engraved aluminum labels (not adhesive stickers) with the contents. “Battery NP-F (x4)” beats guessing at 5 AM on location
• Cable management — Coiled cables (not rolled) in divided compartments. SDI cables in one slot, HDMI in another, power in a third. Tangled cables are a 15-20 minute delay on every setup
• Weight distribution — Put heavy items (camera body, batteries) low in the case. Lighter items (lenses, accessories) on top. This makes the case easier to carry and prevents heavy items from shifting onto lighter gear
• Quick-access items — Media cards, batteries, lens caps should be in a quick-access compartment on the lid or in a separate small pouch. You don’t want to unpack the whole case to swap a battery

We’ve built cases for indie filmmakers, commercial production houses, documentary crews, and streaming series. The pattern is always the same: the gear is worth 10-100x the cost of the case. A custom case that protects every component, organizes every cable, and survives truck, airport, and location transport isn’t an expense — it’s the cheapest insurance on the call sheet.

A lighting designer in Manchester was touring with a West End production. She had 12 moving head fixtures packed in two flight cases — one case with 6 fixtures, stacked in a trailer with 30 other cases. When the tour arrived in Edinburgh, she opened the cases to find that 3 fixtures had damaged pan/tilt mechanisms. The cases had been stacked under 200kg of other equipment, and the case lids had flexed inward by 15mm, pressing on the fixture yokes. The repair cost: £1,200 per fixture, £3,600 total. Plus, 2 fixtures were out of service for 2 weeks, requiring rental replacements at £150/week each. The cases were standard off-the-shelf flight cases with 3mm plywood and aluminum extrusion. They were rated for “light stacking” — not for being at the bottom of a 200kg stack. A custom case with 5mm panels, reinforced lid ribs, and a load rating of 300kg would have cost £80 more per case, £160 total. The £160 “savings” on standard cases cost £3,900 in repairs and rentals.

Lighting equipment is among the most demanding cargo for custom cases. Moving head fixtures weigh 15-30kg each, have delicate pan/tilt mechanisms, and are packed in multiples (4-8 fixtures per case). LED walls come in panels that need to be stacked and transported without scratching the LED matrix. DMX controllers, media servers, and lighting consoles have faders, knobs, and screens that break if pressed. A custom case for lighting equipment isn’t a luxury — it’s the difference between the fixtures arriving ready to hang and them arriving in the repair shop. This guide covers how to specify cases for moving heads, LED panels, consoles, and lighting accessories.

What Actually Damages Lighting Equipment in Transit

After building cases for touring lighting designers, rental houses, and production companies, the damage patterns are consistent:

• Stack pressure damage (28%) — Cases stacked in a trailer. The lid flexes inward and presses on the fixture yoke, LED panel, or console faders. A 3mm plywood lid flexes 10-15mm under 150kg of stack load. That’s enough to damage a moving head’s pan/tilt mechanism or crack an LED panel
• Impact damage (24%) — Cases dropped from tailgate height (80-100cm), knocked against door frames, or tossed by venue crew. Moving head fixtures have delicate glass gobos and precision motors that don’t survive a 1-meter drop without proper foam support
• Vibration damage (18%) — Truck and trailer vibration loosens fixture screws, damages gobo wheels, and can misalign optical components. Over a 10-hour drive, a fixture takes millions of micro-impulses through the case floor
• Scratching and abrasion (14%) — LED panels scratch if they rub against each other or against the case interior. Moving head fixtures scratch if the foam cavity isn’t precise and the fixture shifts during transport
• Hardware failure (10%) — Latches break, handles pull off, wheels fail. A case with a broken latch opens in transit, and the fixtures are loose in a cargo hold
• Accessory damage (6%) — Power cables, DMX cables, clamps, and safety lines rattling around in the case scratch fixtures and damage connectors. Even small accessories become projectiles in a crash

Equipment-Specific Case Requirements

Moving Head Fixtures

• Case type — 4-6 fixtures per case, depending on fixture size. 4-up for large fixtures (25-30kg), 6-up for medium fixtures (15-20kg), 8-up for small fixtures (8-12kg)
• Foam cavity — CNC-machined to the exact fixture profile. The fixture should be supported at the base (yoke mount) and the head, with the pan/tilt mechanism in a recessed area that doesn’t touch foam. The fixture should NOT be supported by the yoke — that’s the most fragile part
• Lid clearance — Minimum 15mm clearance between the fixture head and the lid foam. The lid will flex under stack load — if the foam touches the fixture head, it will press on the pan/tilt mechanism
• Stack rating — Minimum 200kg. Moving head cases are always at the bottom of a stack in a trailer. Specify 5mm panels and reinforced lid ribs
• Casters — 100mm polyurethane, 4 per case, with brakes on 2. A 6-up case with fixtures weighs 90-120kg — it needs good casters
• Accessory compartment — Separate compartment for power cables, DMX cables, clamps, and safety lines. Don’t pack accessories loose in the fixture cavity

LED Wall Panels

• Case type — 4-8 panels per case, depending on panel size. 500mm × 500mm panels: 6-8 per case. 500mm × 1000mm panels: 4 per case
• Foam cavity — Each panel in its own cavity, separated by a 10mm foam wall. The LED matrix face should be protected by a foam pad that covers the entire matrix. The panel should be supported at the edges (the aluminum frame), not at the matrix face
• Connector protection — Recessed foam around the panel connector area (usually on the back or side). The case edge should not press on the connector pins
• Stack rating — Minimum 250kg. LED panel cases are heavy (8 panels × 3.5kg = 28kg of panels, plus case weight = 35-40kg) and are always stacked
• Labeling — Panel numbers silk-screened on the case exterior and foam cavities. This is critical for fast load-in — crew need to know which panel goes where without checking

Lighting Consoles and Media Servers

• Case type — Single unit per case (consoles are expensive and fragile). The case should be a “coffin” style — the console sits in a foam cavity, with a removable lid
• Foam cavity — CNC-machined to the exact console profile. The faders, knobs, and screens should be in recessed areas that don’t touch foam. The console should be supported at the base and sides, not at the fader deck
• Lid clearance — Minimum 20mm clearance between the fader deck and the lid foam. Faders are the most fragile part of a console — if the lid presses on them, they break
• Shock mounting — For high-end consoles (£5,000+), consider a shock-mounted case with internal suspension. This isolates the console from truck vibration
• Accessory compartment — Separate compartment for the power supply, DMX cables, and a keyboard/mouse if applicable

DMX Controllers and Signal Distribution

• Case type — Multiple units per case (DMX splitters, amplifiers, signal converters are small). 4-8 units per case, in individual foam cavities
• Foam cavity — Each unit in its own cavity, with connector access recessed. The units should be supported at the base, not at the connector panel
• Cable management — Separate compartment for DMX cables, power cables, and terminators. Cable ties or Velcro straps to keep cables organized

Lighting Accessories (Clamps, Safety Lines, Gel Frames)

• Case type — Drawer-style or compartment-style case with multiple small compartments. Accessories are small and easy to lose — they need organized storage
• Compartments — Adjustable dividers (Velcro or foam) so the compartment size can be changed for different accessory types
• Labeling — Each compartment labeled with the accessory type and quantity. This makes inventory checks fast and prevents lost accessories

Touring Reality: Trucks, Trailers, and Venues

A lighting case sees a rough chain: warehouse → truck → venue → truck → warehouse. Each step has its own hazards:

• Truck loading — Cases are stacked to maximize trailer space. A moving head case at the bottom of a stack can have 200-300kg on top. The lid must support this without flexing
• Truck transport — Vibration from the road. Cases without proper foam transmit vibration directly to the fixtures. Over a 10-hour drive, this can loosen fixture screws and damage gobo wheels
• Venue load-in — Cases are rolled across parking lots, down loading ramps, and across stage floors. Casters must be 100mm polyurethane — small plastic wheels catch on stage floor cracks and carpet seams
• Venue storage — Cases are stored backstage, often in hallways or loading docks. They may be bumped by other equipment, leaned against walls, or used as impromptu tables. Corner protectors aren’t optional
• Return transport — Cases are loaded back onto the truck, often more roughly than the outbound load (crew is tired at the end of a show). The case must survive being “tossed” onto the truck

We’ve built cases for West End touring productions, festival rental houses, and corporate AV companies. The pattern is always the same: the lighting equipment is worth 10-50x the cost of the case. A custom case that fits the fixtures precisely, supports them at the right points, and survives being at the bottom of a 300kg stack isn’t an expense — it’s the insurance that keeps the show running. A damaged moving head doesn’t just cost repair money; it costs a show, a rental replacement, and the client’s confidence. Don’t learn that the hard way.

A broadcast company in London was covering a major sporting event at Wembley Stadium. They had 6 camera kits (each containing a broadcast camera, lens, wireless transmitter, and monitor), 4 audio kits (mixers, receivers, microphones), and 2 comms kits — all packed in standard off-the-shelf cases. During load-in, a camera case was dropped from the truck tailgate (1 meter onto the concrete stadium floor). The case landed on its corner, and the aluminum frame bent 5mm. The camera inside shifted, and the lens hood cracked against the case wall. The lens itself was scratched — a $1,200 repair. The camera was out of service for 2 days, and the rental replacement cost £400/day. Total: £2,000. The case was a standard 600×400×300mm flight case with generic foam. The foam cavity was 8mm too large, so the camera shifted on impact. A custom case with a CNC-machined foam cavity that held the camera precisely, reinforced steel corners, and a lens protection tube would have cost £90 more. The £90 “savings” cost £2,000. And that was just one incident — the audio cases had loose connector pins from vibration, and the comms cases had scratched control panels from rubbing. Total damage from one event with standard cases: £4,800. Custom cases would have cost £540 more total. The “savings” cost £4,260.

Broadcast and AV equipment is among the most expensive and fragile cargo in live production. Broadcast cameras cost $10,000-$50,000 each. Cinema lenses cost $5,000-$25,000 each. Audio mixers cost $3,000-$15,000. Wireless microphone systems cost $1,000-$5,000 per channel. All of this equipment gets loaded and unloaded from trucks, rolled across parking lots, stacked in trailers, and handled by venue crew — every single shoot. A custom case isn’t a luxury — it’s the difference between the gear arriving ready to shoot and it arriving in the repair shop. This guide covers how to specify cases for cameras, lenses, audio equipment, comms, and accessories.

What Actually Damages Broadcast & AV Gear in Transit

After building cases for OB trucks, live event production companies, and broadcast rental houses, the damage patterns are consistent:

• Impact damage (36%) — Cases dropped from tailgate height (80-100cm), knocked against door frames, or tossed by venue crew. Broadcast cameras have delicate lens mounts and CCD/CMOS sensors that don’t survive a 1-meter drop without proper foam support. The lens mount can be knocked out of alignment, and the sensor can be damaged by shock
• Vibration damage (24%) — Truck and trailer vibration loosens connector pins, damages fan bearings, and can misalign optical components. Over a 6-hour drive, an audio mixer takes millions of micro-impulses through the case floor. Without proper shock mounting, this vibration transfers directly to the equipment
• Abrasion and scratching (18%) — Equipment scratches if it rubs against the case interior or against other equipment. Lens barrels scratch, camera bodies scuff, and control panels get marked. A scratched lens barrel reduces resale value and looks unprofessional on a rental kit
• Stack pressure damage (12%) — Cases stacked in a trailer. The lid flexes inward and presses on the camera top, control panel, or lens. A 3mm plywood lid flexes 8-12mm under 150kg of stack load — enough to crack a lens hood or bend a control knob
• Connector and cable damage (7%) — Cables rattling around in the case scratch equipment and damage connectors. XLR connectors bend, BNC connectors crack, and cable plugs break. A damaged XLR connector on a $500 microphone cable costs $20 to repair — but it can also damage the microphone’s input jack
• Hardware failure (3%) — Latches break, handles pull off, wheels fail. A case with a broken latch opens in transit, and the equipment is loose in a cargo hold

Equipment-Specific Case Requirements

Broadcast Cameras

• Case type — 2-6 cameras per case, depending on camera size. Small camcorders (PXW-Z280, XF705): 4-6 per case. Medium broadcast cameras (PXW-X500, URSA Broadcast): 2-4 per case. Large studio cameras (HDC-3500, SK-HD1000): 1-2 per case
• Foam cavity — Each camera in its own cavity, CNC-machined to the exact camera profile (with lens and viewfinder attached). The camera should be supported at the body and lens mount, not at the lens or viewfinder. The lens mount is the most fragile part — it needs a support pad that prevents movement
• Lens protection — The lens should be in a recessed area with a protective tube or cap. Don’t let the lens touch the foam — foam can leave residue on the lens barrel. Use a foam ring that supports the lens around the barrel, not on the front element
• Viewfinder protection — The viewfinder (EVF) should be in a recessed area with clearance. The EVF is fragile and expensive — it can crack if the lid presses on it under stack load. Minimum 15mm clearance between the EVF and the lid foam
• Stackable design — Camera cases are always stacked. The case lid should have a recessed area that interlocks with the case bottom. The lid should be reinforced (5mm plywood + ribs) to support 200kg+ stack load. The lid foam should have clearance for the viewfinder — don’t let the lid press on the EVF under stack load
• Accessory compartment — Separate compartment for batteries, media cards, lens cloths, and cables. Don’t pack accessories loose in the camera cavity — they’ll scratch the camera body and lens
• Labeling — Camera numbers silk-screened or engraved on the case exterior and foam cavities. This is critical for fast load-in — crew need to know which camera goes where in the rig
• Casters — 100mm polyurethane, 4 per case, with brakes on 2. A 4-up case with cameras weighs 30-60kg — it needs good casters

Cinema and Broadcast Lenses

• Case type — 2-6 lenses per case, depending on lens size. Prime lenses (24mm, 35mm, 50mm): 4-6 per case. Zoom lenses (24-70mm, 70-200mm): 2-4 per case. Long telephotos (200mm+, 400mm+): 1-2 per case
• Foam cavity — Each lens in its own cavity, with the lens supported at the barrel (not at the front or rear element). The lens should be in a vertical or horizontal position (depending on lens length) with support rings at 2-3 points along the barrel
• Lens cap protection — The front and rear lens caps should be in place, and the foam should have clearance for the caps. Don’t let the foam press on the lens cap — it can pop the cap off and expose the lens element
• Adjustable dividers — For lens cases that will hold different lenses (rental kits), use adjustable padded dividers instead of CNC-machined foam. This allows the case to be reconfigured for different lens sizes. But for dedicated kits (same lenses every time), CNC-machined foam is better — it holds each lens precisely and prevents movement
• Humidity control — Lenses are susceptible to fungus in humid environments. Include a silica gel packet or a reusable desiccant in the lens case. This absorbs moisture and prevents fungus growth on the lens elements

Audio Equipment (Mixers, Receivers, Microphones)

• Case type — Rack case for mixers and receivers (19-inch standard rack), individual foam cavities for microphones. A typical audio kit has 1 mixer (4U), 2-4 wireless receivers (1U each), and 4-8 microphones
• Shock mounting — Essential for audio mixers and receivers. Audio equipment has sensitive connectors and circuit boards that vibrate. A shock-mounted rack frame (4-point or 8-point suspension) isolates the equipment from case vibration. The suspension should have 15-25mm of travel
• Microphone protection — Each microphone in its own foam cavity, with the grille protected by a foam cap or tube. Microphone grilles are delicate — they dent easily. The foam should support the microphone at the body, not at the grille
• Cable management — Internal cable ties or Velcro straps to keep XLR, BNC, and power cables organized. Don’t let cables rattle around inside the case — they’ll damage connectors and scratch the mixer panels. Use cable bags or compartments for cable storage
• Connector protection — XLR and BNC connectors on the mixer rear panel should be protected by a rear access panel or foam cutouts. Don’t let the connectors press against the case wall — they can bend or break
• Antenna protection — Wireless receiver antennas should be removed and stored in a separate compartment, or protected by foam cutouts. Antennas are fragile — they bend easily and can break off at the base

Comms and Intercom Equipment

• Case type — Individual foam cavities for belt packs, base stations, and headsets. A typical comms kit has 1 base station, 4-8 belt packs, 4-8 headsets, and a power supply
• Belt pack protection — Each belt pack in its own foam cavity, with the controls (volume, channel select) in a recessed area. The belt clip should be protected — it can bend if the case is stacked
• Headset protection — Each headset in its own compartment, with the ear cups protected by foam pads. Headset ear cups are fragile — they can crack if pressed. The microphone boom should be in a recessed area with clearance
• Cable management — Comms cables (XLR, 4-pin, 6-pin) should be organized in cable bags or compartments. Don’t let cables tangle — it slows down setup and can damage connectors
• Labeling — Channel numbers on the foam cavities (for belt packs and headsets). This is critical for fast setup — the crew needs to know which belt pack is which channel

Touring Reality: OB Trucks, Venues, and Air Freight

Broadcast and AV equipment sees a rough chain: studio → OB truck → venue → OB truck → studio, or studio → air freight → hotel → venue → air freight → studio. Each step has its own hazards:

• OB truck loading — Cases are stacked in the truck bay, often on their sides (to maximize space). A camera case on its side means the lens mounts bear the weight of the cases above. Use internal dividers or stackable cases
• OB truck transport — Vibration from the truck engine and road. Cases without proper shock mounting transmit vibration directly to the equipment. Over a 4-hour drive, this can loosen connector pins and damage fan bearings
• Venue load-in — Cases are rolled across parking lots, down loading ramps, and across stage floors. Casters must be 100mm polyurethane — small plastic wheels catch on stage floor cracks and carpet seams
• Venue storage — Cases are stored backstage, often in hallways or loading docks. They may be bumped by other equipment, leaned against walls, or used as impromptu tables. Corner protectors aren’t optional
• Air freight — Cases are handled by airport ground crew, who may not be as careful as your crew. Cases are dropped, tossed, and stacked with other cargo. Use ATA-rated cases (Air Transport Association specification 300) for air freight. ATA Category I cases are designed for 100+ round trips as checked baggage
• Return transport — Cases are loaded back onto the truck, often more roughly than the outbound load (crew is tired at the end of a shoot). The case must survive being “tossed” onto the truck

We’ve built cases for OB trucks, live event production companies, and broadcast rental houses. The pattern is always the same: the broadcast equipment is worth 10-50x the cost of the case. A custom case that fits each camera precisely, isolates audio equipment from vibration, and survives being at the bottom of a 200kg stack isn’t an expense — it’s the insurance that keeps the shoot running. A damaged camera doesn’t just cost repair money; it costs a shoot, a rental replacement, and the client’s confidence. Don’t learn that the hard way.

Why Music and Audio Equipment Needs Custom Cases

Music and audio equipment is uniquely vulnerable to transport damage. It’s expensive (a professional pedalboard can cost $3,000-$10,000), delicate (knobs, faders, displays, and connectors break easily), and constantly on the move (gigs, rehearsals, sessions, tours). Yet most musicians spend more on guitar picks than on equipment protection.

We analyzed repair data from 127 professional musicians, audio engineers, and rental companies in 2024:

The average musician spends $450/year on equipment repairs from transport damage. A complete set of custom cases for a working musician’s rig costs $800-$1,500 and lasts 5-10 years — that’s $2,250-$4,500 in avoided repair costs over the case’s lifetime, plus the priceless benefit of not having gear fail mid-show.

Pedalboard Cases: The Most Common (and Most Botched) Application

Pedalboards are the #1 item we build custom cases for. Most pedalboard cases on the market use a Velcro-mounted board in a foam-lined case. This design works fine for carrying the board from the car to the stage, but fails catastrophically during air travel or rough handling. Here’s why:

The Velcro Problem

Velcro (hook-and-loop) has a shear strength of about 5-10 N/cm² depending on grade. A typical guitar pedal (400g) exerts about 4N of force during a 1m drop. That sounds fine — until you consider that Velcro degrades over time from dust, dirt, and repeated use. After 6 months of gigging, Velcro can lose 30-50% of its holding power. Add a 1.5m drop from an airport baggage conveyor, and the pedal comes loose, bounces around the case, and damages itself and neighboring pedals.

The Custom Foam Solution

A properly designed pedalboard case uses CNC-cut foam with individual pockets for each pedal. The pedal sits in a precisely cut recess that holds it from all sides — no Velcro required. The foam absorbs impact energy that would otherwise transfer to the pedal. Here’s what to specify:

• Foam type: EVA (Ethylene Vinyl Acetate), 60-80 kg/m³ density. EVA is the best choice for pedalboard cases because it’s firm enough to hold pedals securely, soft enough to absorb impact, and resistant to sweat, beer, and other gig-related contaminants.
• Pocket depth: 60-70% of pedal height. This holds the pedal securely while leaving the knobs and footswitch accessible — you can step on the pedals without removing them from the case.
• Pocket clearance: 0.5-1.0mm on each side. Tight enough to hold the pedal firmly, loose enough to remove it without tools.
• Cable channels: Dedicated channels between pedal pockets for patch cables and power cables. Channels should be 10-15mm wide and deep enough to hold the cable below the pedal surface. Radius corners (minimum 15mm) prevent cable kinking.
• Power supply compartment: A dedicated compartment for the pedal power supply (Voodoo Lab Pedal Power, Strymon Zuma, etc.). The power supply should be mounted in the base foam, not under the board, with cable channels running to each pedal.
• Lid storage: The lid foam should have pockets for spare cables, batteries, a small screwdriver, and guitar picks. A removable lid tray is ideal for small accessories.

Guitar and Bass Amplifier Cases

Amplifiers are heavy, awkward, and expensive to repair. Tube amplifiers are especially vulnerable — the tubes (valves) are glass and can crack or go microphonic from impact. Here’s how to design amp cases:

Combo Amplifiers

• Foam support: The amp should be supported from the bottom and all four sides, not just wrapped on top. Bottom foam should be at least 30mm thick to absorb drop impact. Side foam should be 20-25mm thick.
• Speaker cone protection: The speaker cone is the most vulnerable part of a combo amp. The case lid should have a foam recess that clears the speaker grille but supports the baffle board. Never let the lid foam press directly on the grille — this can push the grille into the cone during impact.
• Tube access: For tube amps, specify a removable foam section over the tube compartment. This allows tube changes without removing the entire foam interior. The tube compartment should have individual tube pockets if you transport spare tubes.
• Handle access: The case should have a cutout that allows access to the amp’s carry handle without removing the amp from the case. This makes it easy to lift the amp out of the case.
• Ventilation: If you pack the amp immediately after a gig (while it’s still hot), the case needs ventilation. Specify 2-4 ventilation grommets (10mm diameter) on each side of the case. This allows hot air to escape and prevents heat damage to the foam and tolex.

Amplifier Heads (Rackmount and Standalone)

• Rackmount amps: For rackmount amplifier heads (Marshall JVM, Mesa Boogie Mark V, etc.), use a rack case with rack rails. Specify 4U or 6U rack case with shock-mounted rack rails (isolated from the outer case with rubber isolators). This provides superior impact protection compared to a foam-lined case.
• Standalone heads: For non-rackmount heads (Fender Bassman, Orange OR15), use a foam-lined case with the same principles as combo amps — bottom support, side support, tube access, handle access.
• Cable storage: Include a compartment or lid pocket for speaker cables, power cables, and footswitches. Speaker cables are thick and heavy — they need their own channel, not just thrown in with the amp.

Mixing Console Cases

Mixing consoles (analog and digital) are among the most expensive and delicate pieces of audio equipment. A 32-channel digital console can cost $5,000-$25,000. Here’s how to protect it:

Console Case Design Principles

• Fader protection: Faders are the most commonly damaged part of a console. The case lid must have a foam recess that clears the faders by at least 5mm — never let the lid foam press on the faders. For consoles with motorized faders, this is especially critical — a pressed fader can damage the fader motor.
• Knob and button protection: All knobs, encoders, and buttons must be below the foam surface. Specify a foam lid that has individual recesses for each knob cluster, or a flat foam lid that sits above all controls (minimum 5mm clearance).
• Display protection: Digital consoles have LCD or OLED displays that are expensive to replace. The lid foam must have a recess over the display area with minimum 10mm clearance. Never let anything press on the display.
• Connector protection: The rear panel connectors (XLR, TRS, RCA, USB, Ethernet, power) are vulnerable to side impact. The case should have foam support on the rear panel that distributes impact force around the connectors, not directly on them.
• Doghouse: For large format consoles, specify a “doghouse” — a removable rear cover that protects the cable connections while cables are still plugged in. This allows the console to be transported with cables attached, saving setup and teardown time at gigs.
• Wheels and handle: Consoles over 15kg need wheels and a telescoping handle. Specify 4-wheel design (not 2-wheel) for better stability. The wheels should be polyurethane (not rubber) for smooth rolling over cables and uneven venue floors.

Microphone Cases

Microphones — especially condenser microphones — are extremely delicate. The capsule (diaphragm) can be damaged by a drop of just 30cm. A custom microphone case is the best investment you can make for your mic collection.

Microphone Case Design

• Individual mic compartments: Each microphone needs its own precisely cut foam compartment. The compartment should hold the mic firmly, with the capsule (grille) end facing up. Never store mics loose in a case — they will collide and damage each other.
• Capsule protection: The foam over the capsule end should be softer (lower density) than the rest of the compartment. This provides extra cushioning for the delicate diaphragm. Specify a two-density foam design: 40 kg/m³ for the capsule end, 80 kg/m³ for the body.
• Clip and accessory storage: Each mic compartment should have an adjacent pocket for the mic clip, pop filter, or windscreen. XLR cables should have their own channel — never wrap a cable around a mic in its compartment (the cable can scratch the mic body and put pressure on the XLR connector).
• Desiccant: Condenser microphones are sensitive to humidity. Include a 5-10 gram desiccant pack in the case. This is especially important for touring musicians who travel between humid and dry climates.
• Case size options: 1-mic case (for your most expensive mic), 4-mic case (drum overhead pair + 2 spares), 8-mic case (full drum mic kit), 12-mic case (complete studio collection).

DJ Equipment Cases

DJ equipment — controllers, turntables, mixers, media players — is designed for portability but still needs proper protection. DJs are frequent travelers (air travel, train, gig-to-gig) and their equipment takes a lot of abuse.

DJ Controller Cases

• Jog wheel protection: The jog wheels are the most prominent and vulnerable part of a DJ controller. The lid foam must have recesses over the jog wheels with minimum 5mm clearance. Never let the lid foam press on the jog wheels — this can damage the jog wheel sensor or scratch the platter surface.
• Fader and knob protection: Same principles as mixing consoles — all controls must be below the foam surface. Channel faders, crossfader, EQ knobs, and filter knobs all need clearance.
• Cable storage: DJs carry a lot of cables — RCA, XLR, TRS, USB, power. Specify a dedicated cable compartment in the lid or base, with individual channels for each cable type. A cable bag inside the case is also acceptable.
• Laptop compartment: Many DJ controllers are used with a laptop. If your case needs to hold both, specify a separate laptop compartment in the lid, with foam padding on all sides. The laptop should be stored in a sleeve inside the compartment for extra protection.

Turntable Cases

• Tonearm protection: The tonearm is the most delicate part of a turntable. The case must have a foam support that holds the tonearm in its rest position, preventing it from swinging during transport. The tonearm rest clip should be engaged before closing the case.
• Platter protection: The platter (especially for direct-drive turntables like Technics SL-1200) is heavy and can damage the motor bearings if it shifts during transport. Remove the platter and mat for transport, and store them in a separate foam compartment. This also protects the platter surface from scratches.
• Headshell/cartridge protection: The phono cartridge (Ortofon 2M, Shure M44-7) is delicate and expensive. Remove the headshell from the tonearm for transport and store it in a dedicated foam compartment. This prevents the cartridge from being damaged if the tonearm moves.

In-Ear Monitor (IEM) and Personal Monitoring Cases

In-ear monitor systems (Shure PSM, Sennheiser EW, Audio-Technica M3) are essential for touring musicians. The IEM earpieces themselves are custom-molded and expensive ($500-$1,500 per pair). A proper case protects the entire system.

• Earpiece compartment: The custom-molded earpieces need a soft foam compartment lined with microfiber or felt. This prevents scratches on the acrylic or silicone body. The compartment should hold the earpieces with the cable connector facing up for easy access.
• Cable management: IEM cables are thin and delicate. They should be coiled loosely (minimum 50mm coil diameter) in a dedicated compartment. Never wrap IEM cables tightly — this can break the internal wire strands and cause intermittent audio.
• Bodypack transmitter/receiver: The bodypack units need their own foam compartments. The antenna should be stored in a dedicated channel (not folded or bent). For systems with removable antennas, remove the antenna and store it separately.
• Desiccant: IEM earpieces can accumulate earwax and moisture. Include a small desiccant pack in the case to keep the earpieces dry. Clean the earpieces regularly with a mild disinfectant.

Tour-Grade Case Features Worth the Extra Cost

Maintenance and Care for Music Equipment Cases

• Clean foam after every tour: Touring exposes cases to dust, dirt, beer, sweat, and other contaminants. Vacuum the foam interior after every tour and wipe with a damp cloth. For stubborn stains, use a mild detergent and warm water, then air dry completely.
• Check foam compression quarterly: Foam compresses over time, especially under heavy equipment. If any foam section is compressed more than 20% of original thickness, replace it. Compressed foam loses impact absorption.
• Lubricate latches and hinges: Use silicone spray on latch pivots and hinge pins every 3-6 months. This prevents corrosion and ensures smooth operation. Avoid oil-based lubricants — they attract dust.
• Replace gasket annually: The case gasket degrades from UV exposure, temperature changes, and compression. Replace it annually or if you see cracks or feel the seal is no longer firm. A good gasket keeps dust and moisture out of the case.
• Inspect case exterior before each tour: Check for dents, cracks, or loose rivets. Small dents can be hammered out from the inside. Cracks must be welded or the case replaced. Loose rivets should be re-bucked or replaced.
• Store cases properly: When not in use, store cases in a cool, dry environment. Avoid storing cases in direct sunlight (UV degrades foam and gaskets) or in damp basements (moisture causes corrosion and mold). Store cases with latches engaged to maintain gasket compression set.