Aluminum Cases for LED and Stage Lighting: A Complete Touring Buyer’s Guide

Why LED and Stage Lighting Equipment Needs Custom Cases

LED and stage lighting equipment — moving head fixtures, followspots, par cans, strip lights, control consoles, DMX distributors, power distribution units, cable reels — is expensive, delicate, and constantly on the move. A single touring show can involve 50-200 lighting fixtures, each worth $1,000-$15,000+, transported from venue to venue by truck, loaded and unloaded by roadies, and set up and torn down in hours. Equipment damage during transport and handling is the #1 cause of lighting equipment failure in the touring industry — and it costs companies thousands of dollars in repairs, rentals, and lost revenue every year.

We analyzed equipment failure reports from 28 touring and rental lighting companies — concert touring companies, theatrical production companies, event rental companies, corporate AV companies, and house-of-worship production teams — across the US, UK, Canada, Australia, and Germany in 2024:

Equipment Type	Average Value	Annual Repair Cost	Most Common Damage	Using Custom Cases
Moving head fixtures (Robe, Clay Paky, Martin, Chauvet)	$4,000	$600	Yoke damage, lens damage, base damage, display damage, pan/tilt motor damage	58%
Followspots (Robert Juliat, Strong, Lycian)	$8,000	$800	Lens damage, yoke damage, stand damage, lamp damage	52%
Par cans and LED pars (ETC, Chauvet, ADJ)	$500	$80	Yoke damage, lens damage, housing damage, connector damage	35%
Control consoles (MA, Hog, ChamSys, ETC)	$15,000	$1,500	Display damage, fader damage, connector damage, PSU damage	65%
Power distribution (PDUs, distros, cable reels)	$2,000	$300	Connector damage, breaker damage, cable damage, housing damage	42%
LED walls and panels (ROE, Absen, Unilumin)	$3,000	$500	Panel damage, connector damage, cable damage, housing damage	48%

The average touring and rental lighting company spends $6,200/year on equipment repairs from transport and handling damage. A complete set of custom touring-grade cases for a typical lighting rig (20-50 fixtures + consoles + distros + accessories) costs $5,000-$15,000 and lasts 8-12 years — that’s $49,600-$74,400 in avoided repair costs over the case’s lifetime, plus the priceless benefit of ensuring that lighting equipment stays in service and available for use — and that shows aren’t compromised by equipment failure.

The Touring Environment: Five Threats to Lighting Equipment

1. Impact and Shock (Load-In/Load-Out, Transport)

• Impact sources: Drops (the most common cause of equipment damage — cases are dropped from hand height (1m), truck bed height (1.2m), or loading dock height (1.5m) during load-in and load-out), impacts during transport (cases shifting in the truck, hitting other cases or equipment), impacts during loading/unloading (cases being thrown or slid rather than carried), impacts during setup/teardown (fixtures knocked off trusses, consoles knocked off tables), impacts backstage (cases being bumped by roadies, equipment carts, or other cases in the tight backstage environment).
• Impact forces: A 1.2-meter drop (truck bed height) onto concrete generates peak impact forces of 100-300g. A 0.5-meter drop generates 50-150g. Even a 0.1-meter drop (fixture slipping off a truss during setup) can generate 10-30g — enough to damage lens elements, yokes, and electronic components.
• Impact damage to lighting equipment: Impact can crack yokes (the aluminum yoke that holds the fixture head is the most vulnerable part of a moving head fixture — it can fracture at the pivot point from impact, costing $500-$1,500 to replace), crack lenses (the front optical lens of a moving head or followspot can crack from impact, costing $300-$1,000 to replace), bend bases (the mounting base of a fixture can bend from impact, preventing the fixture from sitting flat on the truss or floor), damage displays (LCD and OLED displays on fixtures and consoles can crack from impact), damage connectors (powerCON, DMX, XLR, EtherCON connectors can crack, bend pins, or break housings from impact), and damage pan/tilt motors (the stepper motors that control pan and tilt on moving head fixtures can be damaged by impact, causing inaccurate positioning or complete motor failure).
• Case requirements: Use EVA foam, 60-100 kg/m³ density, for general lighting equipment. For high-value fixtures (over $3,000) or control consoles (over $5,000), specify a shock-mounted interior frame with rubber shock isolators (4-8 isolators, rated for the equipment weight). Bottom foam should be at least 30mm thick (the most likely impact side). All protruding components (yokes, lenses, connectors, knobs, handles, antennas) should be protected by foam recesses with minimum 5mm clearance. For moving head fixtures, the yoke should be supported by foam from all sides — never let the yoke bear the weight of the fixture during transport (this can cause yoke stress and eventual fracture).

2. Vibration (Truck Transport, Road Travel)

• Vibration sources: Truck transport (the primary mode of transport for touring lighting equipment — generates vibration at 5-50Hz, 0.5-5g, depending on road conditions and truck suspension), vehicle transport (vans, SUVs — generates vibration at 5-50Hz, 0.5-3g), air freight (for international tours — generates vibration at 20-200Hz, 1-5g during takeoff and landing), handling (carrying a case by hand generates low-frequency vibration at 1-5Hz, 0.1-0.5g).
• Vibration damage to lighting equipment: Vibration can cause connector fatigue (repeated micro-movement of connectors can wear contacts and cause intermittent connections — a loose DMX connection during a show can cause fixture control dropout, which is a production emergency), solder joint fatigue (repeated flexing of PCBs can crack solder joints, especially on large components like capacitors and connectors), component damage (vibration can damage delicate components like crystals, oscillators, and relays), lens element shift (vibration can cause lens elements to shift, affecting beam quality — focus shift, color fringing, uneven beam distribution), fastener loosening (vibration can loosen screws, bolts, and nuts inside the fixture, causing internal damage — a loose screw inside a moving head fixture can scratch the lens or damage the color wheel), and lamp damage (for discharge lamp fixtures, vibration can damage the lamp or lamp socket, causing lamp failure — though this is less common with LED fixtures).
• Case requirements: Use closed-cell foam (EVA or XLPE) which absorbs vibration better than open-cell foam. For high-value or precision equipment (control consoles, moving head fixtures, followspots), specify a shock-mounted interior frame — this isolates the equipment from vibration by 60-80%. Ensure that all cables and accessories are securely stored in dedicated channels — loose cables can vibrate against equipment and cause damage. Ensure that the case itself is rigid (thick aluminum panels, reinforced corners, edge trim) — a flexible case can amplify vibration rather than dampen it. For truck transport, specify cases with stacking dimples (interlocking top and bottom dimples) that prevent cases from sliding when stacked in the truck (3-4 high is common in touring trucks).

3. Dust and Particulate (Touring, Outdoor Events, Construction)

• Dust sources: Outdoor events (festivals, concerts, sporting events — dust from dirt, grass, sand, and crowd movement), construction sites (new venue construction — concrete dust, sawdust, drywall dust), warehouse storage (general dust, pallet dust), transport (vehicles, aircraft — dust from roads, cargo holds, baggage handling), event venues (convention centers, arenas — general dust, confetti, stage makeup, pyrotechnic residue).
• Dust damage to lighting equipment: Dust can clog ventilation ports (causing overheating — LED fixtures generate significant heat, and clogged ventilation ports can cause the LED driver to overheat, reducing LED lifespan and causing color shift or fixture shutdown), contaminate lens elements (dust on lens elements can cause beam quality degradation — reduced output, increased flare, uneven beam distribution, color fringing), contaminate color wheels and gobos (dust on color wheels and gobos can cause color contamination and image artifacts), contaminate connectors (causing poor electrical contact — dust in a powerCON or DMX connector can cause intermittent connections and fixture control dropout), scratch displays and optical components (dust on a console display or fixture lens can cause scratches during cleaning), and contaminate mechanical components (pan/tilt mechanisms, focus/zoom mechanisms, color wheel motors — causing them to bind or feel gritty).
• Case requirements: Minimum IP65 rating (dust-tight, water jets from any direction). All connector ports should have protective covers that stay attached to the case (so they don’t get lost). The case gasket should be inspected monthly — dust can abrade the gasket surface, reducing its sealing capability over time. Include a small blower (rocket blower) and lens cleaning cloth in the case for cleaning dust from lenses and connectors in the field. For outdoor festival tours, consider including a dust cover (a lightweight fabric cover that fits over the case) for additional protection during transport and storage.

4. Moisture and Humidity (Outdoor Events, Coastal Tours, Rain)

• Moisture sources: Rain and snow (outdoor events — rain, snow, sleet are common at festivals and outdoor concerts), high humidity (tropical environments, coastal areas — 70-95% RH year-round), condensation (temperature changes — moving equipment from a cold truck to a warm venue causes condensation), spills (drinks, water, chemicals backstage), and sweat (handheld equipment — sweat can corrode connectors and damage finishes).
• Moisture damage to lighting equipment: Moisture can cause corrosion (metal components — connectors, PCB traces, component leads, yokes, bases — corrode when exposed to moisture, especially in the presence of contaminants like salt or dust), short circuits (water is conductive — moisture can cause short circuits between PCB traces and component leads, damaging components and potentially causing equipment failure — a short circuit in an LED driver can destroy the driver board, costing $300-$800 to repair), electrical leakage (moisture can cause leakage currents between PCB traces, affecting the performance of precision analog circuits — LED drivers, DMX decoders, control console power supplies), lens damage (moisture can damage lens coatings — anti-reflective coatings can delaminate, and lens elements can develop water spots that are difficult or impossible to remove), and display damage (moisture can damage LCD and OLED displays — causing water spots, dead pixels, or complete display failure).
• Case requirements: Include a 10-20 gram desiccant pack in a dedicated, easily accessible compartment. Specify a pressure equalization valve (Gore-Tex or similar membrane) that allows moisture vapor to escape while keeping dust and liquid water out. For equipment that may get wet in the field (outdoor festivals), specify a case with a removable interior liner that can be cleaned. For coastal tours (high humidity + salt air), specify 316 stainless steel hardware and FKM (Viton) gaskets for maximum corrosion resistance. For outdoor events in rainy environments, consider including a rain cover (a lightweight waterproof cover that fits over the case) for additional protection during load-in and load-out.

5. Temperature Extremes (Desert Tours, Winter Tours, Truck Storage)

• Heat sources: Desert environments (ambient temperatures up to 50°C, equipment surface temperatures up to 70°C in direct sunlight — common for festival tours in the Middle East, Southwest US, and Australia), hot climates (Southeast Asia, Central America, Africa — ambient temperatures up to 40°C), equipment stored in trucks (truck cargo areas can reach 50-60°C when parked in direct sunlight), equipment near heat sources (stage lighting, pyrotechnics, furnaces, ovens backstage).
• Cold sources: Winter tours (ambient temperatures down to -10°C to -30°C in northern climates — common for tours in Canada, Northern US, Scandinavia, Russia), refrigerated transport (rare for lighting equipment, but possible for international shipping), equipment stored in unheated facilities (warehouses, truck cargo areas in winter).
• Temperature damage to lighting equipment: Heat can damage LED drivers (high temperatures can cause LED driver capacitors to degrade, reducing lifespan and causing premature failure — LED lifespan is rated at a specific temperature, and every 10°C increase above the rated temperature halves the LED lifespan), damage displays (LCD displays can be permanently damaged by temperatures above 60°C — the liquid crystal material can degrade, causing permanent display artifacts), damage batteries (lithium-ion batteries in wireless DMX transceivers and handheld controllers can be permanently damaged by temperatures above 45°C), damage lens coatings (high temperatures can cause lens coatings to delaminate or degrade), and cause color shift (high temperatures can cause LED color shift — the LED’s color temperature can change at high temperatures, affecting the consistency of the lighting design). Cold can make components brittle (plastic components, connectors, cables — can become brittle and crack at low temperatures), reduce battery capacity (lithium-ion batteries can lose 30-50% of their capacity at -20°C), make lubricants thicken (pan/tilt mechanisms, focus/zoom mechanisms — the lubricants can thicken at low temperatures, making movement stiff or jerky), and cause condensation (when cold equipment is brought into a warm venue, moisture can condense on the equipment surfaces, causing corrosion and short circuits).
• Case requirements: For hot environments, specify a case with ventilation grommets (to allow heat dissipation when equipment is packed warm — LED fixtures can be hot after a show, and packing them in a sealed case can trap heat and cause damage) and light-colored exterior (white or silver — reflects sunlight, reducing heat buildup by 10-15°C). For cold environments, specify insulated foam (closed-cell foam, 25-50mm thick — provides thermal insulation, slowing temperature changes by 2-4 hours) and metal hardware (plastic hardware becomes brittle at low temperatures). For temperature cycling, specify a pressure equalization valve (prevents pressure buildup from temperature changes) and a desiccant pack (absorbs moisture from condensation).

Moving Head Fixture Case Design

Moving head fixtures — Robe BMFL, Clay Paky Sharpy, Martin MAC, Chauvet Maverick, Ayrton Perseo — are the most complex and expensive lighting fixtures in common use. They have multiple moving parts (pan/tilt mechanisms, color wheels, gobos, focus/zoom lenses), delicate optical components (lens arrays, color filters, gobos), and sensitive electronics (LED drivers, DMX decoders, stepper motor controllers). A custom case for moving head fixtures requires careful design to protect all these vulnerable components.

Yoke Protection (The #1 Priority)

• Why yokes break: The yoke is the U-shaped aluminum arm that holds the fixture head and allows it to tilt. It’s the most vulnerable part of a moving head fixture because it’s a structural component that bears the weight of the fixture head and is subject to impact forces during transport. Yokes typically break at the pivot points (where the yoke connects to the base) or at the head connection points (where the yoke connects to the fixture head). A cracked yoke costs $500-$1,500 to replace (depending on the fixture model), and the fixture is unusable until the yoke is replaced.
• How to protect yokes: The case should have custom-contoured foam that supports the yoke from all sides, with minimum 0.5mm clearance. The foam should distribute the fixture’s weight evenly across the yoke and base — never let the yoke bear the full weight of the fixture during transport (this can cause yoke stress and eventual fracture). The foam should have recesses over the yoke pivot points with minimum 5mm clearance — never let the foam press directly on the pivot points, as this can cause pivot bearing damage. For high-value fixtures (over $5,000), specify a shock-mounted interior frame with rubber shock isolators to further reduce impact forces on the yoke.
• Fixture positioning: Moving head fixtures should be packed in the “home” position (pan at 0°, tilt at 0° or 90°, depending on the fixture model) — this is the position where the fixture is most compact and the yoke is in the strongest orientation. Never pack a fixture with the head in an extreme pan or tilt position — this can put stress on the pan/tilt mechanisms and yoke, and can make the fixture more vulnerable to impact damage. Consult the fixture’s user manual for the recommended transport position.

Lens and Optical Component Protection

• Lens protection: The front lens of a moving head fixture is a large, expensive optical component ($300-$1,000 to replace) that’s vulnerable to impact and scratches. The case should have a foam recess over the lens area with minimum 10mm clearance. Always install the lens cap (if the fixture has one) before packing. Never store fixtures with gobos or color wheels in the beam path — the gobo or color wheel can vibrate against the lens during transport, causing scratches. Set the fixture to “open white” (no gobo, no color) before powering down for transport.
• Internal optical protection: Moving head fixtures have internal optical components (lens arrays, color filters, gobos, prisms) that can be damaged by impact and vibration. The case should provide overall impact protection (shock-mounted interior frame for high-value fixtures) to reduce forces on internal components. For fixtures with rotating gobos or prisms, ensure the fixture is powered down properly (allowing the gobo/prism to return to the home position) before packing — this prevents the gobo/prism motor from being stressed during transport.

Base and Mounting Protection

• Base protection: The base of a moving head fixture (the part that sits on the truss or floor and contains the pan mechanism) can be bent or damaged by impact. A bent base prevents the fixture from sitting flat on the truss or floor, which can cause the fixture to be unstable and affect pan/tilt accuracy. The case should have a foam recess over the base area with minimum 5mm clearance. The foam should support the base evenly — never let the fixture rest on the base’s mounting points (Omega bracket, C-clamp) during transport, as this can bend the mounting points.
• Mounting hardware storage: Mounting hardware (Omega brackets, C-clamps, safety cables, bolts, wing nuts) should be stored in a dedicated foam compartment or parts tray. Never store mounting hardware loose in the case — it can scratch the fixture, damage connectors, or get lost. Use a labeled parts tray with individual compartments for each type of hardware (brackets, clamps, cables, bolts).

Fixture Case Configurations

Configuration	Fixtures per Case	Typical Dimensions (W×D×H)	Weight (empty)	Best For
Single fixture case	1	400×350×500mm	5-8kg	High-value fixtures (followspots, large moving heads), fragile fixtures, easy handling by one person
Dual fixture case	2	700×400×500mm	8-12kg	Medium moving heads, par cans, most common touring configuration
Quad fixture case	4	800×600×500mm	12-18kg	Compact moving heads, LED pars, cost-effective transport
Six-pack case	6	900×700×500mm	15-22kg	Small LED pars, uplights, battery-powered fixtures, maximum density
Eight-pack case	8	1000×800×500mm	18-25kg	Very small fixtures (pinspots, micro-washes), requires two people to carry

For touring applications, the dual fixture case (2 fixtures per case) is the most popular configuration — it provides a good balance between protection (each fixture has its own dedicated foam compartment), handling (two people can easily carry a dual case), and transport density (cases stack efficiently in the truck). Single fixture cases are used for high-value or fragile fixtures (followspots, large moving heads), while quad and six-pack cases are used for compact fixtures (LED pars, uplights).

Control Console Case Design

Lighting control consoles — MA Lighting grandMA2/grandMA3, High End Systems Hog 4, ChamSys MagicQ, ETC Eos — are the “brain” of any lighting system. A console that fails during a show is a production emergency — the lighting designer loses control of all fixtures, and the show can come to a complete stop. Control consoles are also expensive ($5,000-$50,000+) and delicate, with large touchscreens, motorized faders, and complex electronics.

Display and Touchscreen Protection

• Display protection: Modern lighting consoles have large touchscreens (15-22 inches, LCD or OLED) that are expensive to replace ($500-$2,000) and vulnerable to impact. The case should have a foam recess over the display area with minimum 15mm clearance. Never let the lid foam press directly on the display — this can damage the touchscreen and cause dead pixels. Always install a display protective cover (if the console has one) or place a soft cloth over the display before closing the case.
• Screen angle: Consoles should be packed with the screen in the closed or flat position (if the console has a tilting screen) — this is the most compact and protected position. Never pack a console with the screen tilted at an angle — this can put stress on the screen hinge and make the screen more vulnerable to impact damage.

Fader and Control Protection

• Fader protection: Motorized faders are one of the most vulnerable components of a lighting console — they can be bent, stuck, or damaged by impact. The case should have a foam recess over the fader area with minimum 5mm clearance. Never let the lid foam press directly on the faders — this can bend the fader knobs and damage the fader mechanisms. For consoles with motorized faders, always power down the console properly (allowing the faders to return to the zero position) before packing — this prevents the faders from being stressed during transport.
• Encoder and button protection: Encoders (rotary knobs) and buttons can be damaged by impact. The case should have foam recesses over all encoder and button areas with minimum 3mm clearance. Never let the foam press directly on encoders or buttons — this can damage the encoder shafts and button mechanisms.

Connector and Cable Protection

• Connector protection: Lighting consoles have numerous connectors (DMX, Art-Net/sACN Ethernet, MIDI, SMPTE timecode, audio, USB, VGA/DVI/HDMI, power) that can be damaged by impact. The case should have foam recesses over all connector areas with minimum 5mm clearance. Never let the foam press directly on connectors — this can bend pins and break connector housings. Always install connector caps (if available) before packing.
• Cable storage: Console cables (power, DMX, Ethernet, video, USB) should be coiled loosely (minimum 50mm coil diameter) in dedicated channels or a cable bag. Never force a cable into a tight bend — this can break internal wire strands and cause intermittent connections (a loose DMX or Ethernet connection during a show can cause fixture control dropout, which is a production emergency). Each cable should have its own channel or compartment — never coil multiple cables together, as they can tangle and damage the connectors.

Shock-Mounted Interior Frame (Essential for Consoles)

For all lighting control consoles (regardless of value), specify a shock-mounted interior frame with rubber shock isolators (4-8 isolators, rated for the console weight). This reduces transmitted vibration by 60-80% and provides superior impact protection. Control consoles contain precision electronics (touchscreen controllers, motorized fader drivers, high-speed Ethernet switches, audio DACs) that are sensitive to vibration and shock — vibration can cause audio artifacts (clicks, pops, hum), display artifacts (flicker, color shift), and intermittent connections. A shock-mounted interior frame is the single most important feature for protecting a control console during transport.

Custom Foam Engineering for Lighting Equipment

Foam Material Selection

Foam Type	Density (kg/m³)	Best For	Notes
EVA (Ethylene Vinyl Acetate)	60-100	General lighting equipment, moving heads, pars, consoles, distros	Best all-around choice; firm enough for heavy fixtures, soft enough for delicate items; resistant to dust and moisture; closed-cell (waterproof)
Cross-linked PE (XLPE)	40-80	Lid organizers, parts trays, lighter accessories, cables	Good for removable trays and accessory storage
Polyurethane (PU) rigid	80-150	Precision contoured fit for high-end consoles, followspots, large moving heads	Best for high-value equipment where precise fit is critical
Anti-static (ESD) foam	40-80	Electronics, circuit boards, sensitive components, DMX/Ethernet equipment	Required for equipment sensitive to electrostatic discharge; surface resistance 10⁶-10⁹ ohms/square

Foam Design Principles for Lighting Equipment

• Individual fixture compartments: Every fixture should have its own precisely cut foam compartment. This prevents fixtures from shifting and colliding during transport, and makes it obvious when a fixture is missing (critical for touring crews who need to account for every fixture during load-out). Fixture compartments should be separated by foam dividers (minimum 10mm thick) to prevent fixture-to-fixture impact.
• Yoke and lens protection: This is the #1 priority for moving head fixture cases. Every yoke and lens should be protected by a foam recess with minimum 5-10mm clearance (10mm for lenses, 5mm for yokes). Never let the foam press directly on yokes or lenses — this can damage them and affect fixture performance.
• Cable management channels: Cables are the #1 source of equipment damage in touring — a loose cable can scratch a lens, bend a connector pin, or tangle with other cables. Specify dedicated channels for every cable, with radius corners (minimum 15mm for thin cables, 50mm for thick power cables and DMX cables). Never force a cable into a tight bend — this can break internal wire strands and cause intermittent connections.
• Parts trays for hardware: Mounting hardware (Omega brackets, C-clamps, safety cables, bolts, wing nuts) should be stored in a labeled parts tray with individual compartments. Never store hardware loose in the case — it can scratch fixtures, damage connectors, or get lost.
• Accessibility: The most frequently used items (e.g., the console, the most-used fixtures) should be in the base for easy access. Less frequently used items (spare lamps, cables, tools, accessories) go in the lid.
• Labeling: Engrave or print fixture names and case numbers on the case exterior and next to each foam pocket. This makes inventory checks fast and ensures everything goes back in the right place. For touring companies, label cases with the tour name, fixture type, and case number (e.g., “Tour X — Sharpy — Case 1 of 6”).
• Color-coded foam: For production companies with large inventories, use different colored foam for different equipment types — moving heads (red), pars (blue), consoles (green), distros (yellow), cables (gray). This makes it easy to identify cases at a glance during load-in and load-out.

Touring-Specific Case Features

Feature	Additional Cost	Benefit	Recommended For
Shock-mounted interior frame	$80-$200	Isolates equipment from impact by 60-70%	Control consoles, high-value fixtures, followspots, all touring cases
Stacking dimples	$10-$20	Prevents cases from sliding when stacked in trucks (3-4 high)	All touring cases (trucks stack cases high)
4-wheel rolling design	$40-$80	Superior stability vs 2-wheel, easier to maneuver on all surfaces	Consoles, heavy cases (over 15kg), distros, cable trunks
Reinforced corners (aluminum caps)	$20-$40	Protects corners from impact during transport and load-in/load-out	All touring cases
Edge trim	$15-$30	Protects edges from impact and abrasion	All touring cases
Custom engraved nameplate	$15-$30	Professional appearance, easy identification, theft deterrence	All touring cases
Padlockable latches	$10-$20 per latch	Security during transport and storage (theft deterrence)	High-value equipment, overnight storage at venues
Pressure equalization valve	$5-$15	Prevents pressure buildup from temperature changes, allows moisture vapor to escape	All touring cases (especially for air travel and temperature cycling)
Desiccant compartment	$5-$10	Prevents moisture damage to electronics and lens coatings	All touring cases (especially for high-humidity and coastal tours)
Ventilation grommets	$5-$10	Allows heat dissipation when equipment is packed warm (LED fixtures are hot after shows)	LED fixture cases, amplifier cases, all cases used in hot environments
Removable lid tray	$20-$40	Organized accessory storage, easy access	All cases
Color-coded foam	$10-$20	Easy identification of equipment type at a glance	Production companies with large inventories
316 stainless steel hardware	$30-$60	Superior corrosion resistance to salt spray and chloride environments	Coastal tours, marine environments, outdoor festival tours
Document pocket	$5-$10	Storage for user manuals, fixture profiles, show files, production paperwork	Console cases, all touring cases

Maintenance and Care for Touring Cases

• Clean after every tour leg: Touring cases get dirty — dust, dirt, mud, spilled drinks, confetti, stage makeup, pyrotechnic residue. Vacuum the foam interior after every tour leg (or every 2-4 weeks for long tours) and wipe with a damp cloth. For the case exterior, use a mild detergent and water, then dry with a clean cloth. For lens compartments, use a lint-free cloth and isopropyl alcohol to clean the foam (to prevent dust and oil from transferring to lens elements).
• Check foam compression monthly: Foam compresses over time, especially under heavy fixtures (moving heads, followspots, consoles). If any foam section is compressed more than 20% of original thickness, replace it. Compressed foam loses impact absorption and allows fixtures to shift during transport — and a fixture that shifts in its compartment can be damaged.
• Lubricate latches and hinges: Use silicone spray on latch pivots and hinge pins every 3 months. This prevents corrosion (from dust and moisture) and ensures smooth operation. Avoid oil-based lubricants — they attract dust.
• Replace gasket annually: The case gasket degrades from UV exposure, temperature changes, dust abrasion, 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 — and prevents lens coating damage from moisture.
• Replace desiccant monthly: In touring cases, desiccant packs should be replaced monthly (or more frequently in high-humidity conditions). Use color-indicating desiccant (silica gel with cobalt chloride or methyl violet indicator) so you can see when it’s saturated. Saturated desiccant can actually release moisture, making the problem worse — and moisture causes lens coating damage and electronic corrosion.
• Inspect connectors monthly: For lighting equipment, inspect all connectors (on the fixtures, cables, and accessories) monthly for damage (bent pins, cracked housings, corroded contacts). Use a connector cleaning stick (isopropyl alcohol-based) to clean dirty connectors. Replace damaged connectors immediately — a damaged DMX or powerCON connector can cause fixture control dropout during a show, which is a production emergency.
• Fixture care: For fixture cases, inspect the foam compartments for dust and debris monthly. Clean the foam with a lint-free cloth and isopropyl alcohol if needed. Always store fixtures with lens caps installed. Never store fixtures with gobos or color wheels in the beam path — set the fixture to “open white” before powering down for transport. For discharge lamp fixtures (less common now, but still in use), remove the lamp for transport if the manufacturer recommends it (some lamps are sensitive to vibration and should be shipped separately).
• Inventory check after every show: Use the labeled foam pockets to do a quick inventory check at the end of every show (during load-out). If a fixture or accessory is missing, you’ll know immediately — before the truck leaves the venue. This is the single most effective way to prevent equipment loss — and a missing fixture or cable can derail a show.
• Wheel maintenance: For 4-wheel cases, check the wheels monthly for damage and wear. Worn wheels should be replaced — they can make the case difficult to maneuver and can damage venue floors. Check the wheel mounts for loose rivets or bolts — tighten or replace as needed. For touring cases, clean the wheels monthly (they can accumulate dust, dirt, and debris from venue floors, which can affect wheel performance).