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Camera housings allow system integrators to build a hazardous-area CCTV product around a selected imaging module, lens, network board or power architecture. Future Vision’s Camera Housing category is focused on 304/316L stainless-steel explosion-proof enclosures rather than ordinary weatherproof covers. The range includes fixed bullet housings, bullet housings with wipers, IR housings with a listed 150 m night-vision distance and explosion-proof junction boxes. These products are intended for petroleum, chemical, mining, pharmaceutical, marine, drilling, fuel storage, grain processing and other environments where combustible gases or dust may be present. The housing, internal camera, optical window, cable glands and installation method must be engineered as one certified system.
A complete explosion-proof camera arrives with the image sensor, lens, electronics and enclosure configured together. A housing-only solution gives an OEM greater control over resolution, optical zoom, interface, analytics and supply chain. It also transfers more engineering work to the integrator. Internal heat generation, available volume, lens position, connector access, power supply and electromagnetic compatibility must be checked before the camera module is installed. The chosen electronics must not exceed the housing’s thermal assumptions or interfere with certified construction. A housing is therefore a platform for controlled integration, not a generic box for any camera board.
The 304/316L stainless-steel explosion-proof bullet camera housing uses 304/316L stainless steel, special explosion-proof glass and an IP68 construction. The listed model IPC-FB600-SS304 uses two G3/4 cable entries and weighs no more than approximately 7.5 kg. Its certification marking includes Ex db IIC T6 Gb and Ex tb IIIC T80°C Db for an ambient range from -40°C to +60°C. This housing is suitable for fixed visible or network camera integration where the monitored scene is stable and no active IR or window-cleaning system is required. The final lens should be positioned to avoid vignetting and reflections through the protective glass.
The explosion-proof bullet camera housing with wiper adds a wiper to the same general stainless-steel hazardous-area architecture. The listed model IPC-FB603-SS304 retains two G3/4 entries, IP68 protection and a weight around 7.5 kg. Wiper support is useful at outdoor chemical sites, marine locations, dusty processing areas and installations exposed to rain or spray. The wiper motor, blade and control wiring should be included in the power and maintenance plan. A wiper can remove loose contamination, but hard deposits or oily residue may still require manual cleaning or a dedicated wash system.
The 150 m IR explosion-proof camera housing with wiper integrates a high-efficiency IR array and wiper into a 304/316L stainless-steel enclosure. The page lists 150 m IR distance, IP68 protection and a weight around 9 kg. This housing is appropriate when the OEM needs visible monochrome night imaging but wants to select the internal camera module separately. The IR beam, camera lens and explosion-proof window must remain aligned. Nearby surfaces can reflect IR back into the image, while dirt on the glass can produce glare. The customer should validate actual detection and identification distance with the selected sensor and lens.
The category also includes standard and IP68 explosion-proof junction boxes in 304/316L stainless steel. These boxes provide protected termination points for power, Ethernet, fiber, alarm and control cables. They are particularly important when the camera housing cannot accommodate all splices or surge-protection components internally. The box certificate, cable entries and grounding arrangement must match the site. An approved camera housing can become non-compliant if connected through an unsuitable junction box or gland. Procurement should therefore treat the enclosure and termination hardware as one installation package.
Both materials provide corrosion resistance, but they are not identical. 304 is widely used in general industrial environments, while 316L offers improved resistance in many chloride-rich, marine and chemically aggressive conditions. The correct choice depends on process chemicals, salt exposure, cleaning agents and expected service life. Brackets, fasteners and glands should use compatible materials to reduce galvanic corrosion. Surface finish and maintenance also matter. Selecting 316L does not eliminate the need to remove deposits or inspect welds and seals.
Future Vision housings use special explosion-proof glass described as having high optical transmission and surfaces that resist water, oil and dust adhesion. The window must withstand the enclosure’s safety requirements while preserving image quality. Thickness, flatness, coating and mounting angle influence resolution, focus and reflection. A long optical zoom lens is more sensitive to window distortion than a wide fixed lens. The camera should be focused through the final closed housing, not on an open bench. IR systems require additional testing because reflected illumination can reveal contamination that is not obvious in daylight.
The integrator should compare the internal housing dimensions with the camera module, lens travel, cable bend radius and heat sink. A motorized zoom lens may extend during operation and must not contact the window or wiring. The board stack should be mounted securely without stressing connectors. If a PoE, encoder or analytics board is added, its heat and power should be included in the thermal calculation. Future Vision should receive module drawings and power data before the customer finalizes mechanical brackets. Prototype fit checks are essential before batch production.
IP68 and explosion-proof housings limit natural airflow. Sensor boards, network processors, IR arrays and power converters generate heat that must be conducted to the enclosure body. Excess temperature can increase image noise, shift focus and reduce component life. Low-temperature sites may require controlled heating, while high-temperature sites need careful power budgeting and external shading. The certified ambient range does not automatically mean any internal electronics will operate safely throughout that range. The complete assembly should be temperature tested in both operating and standby modes.
Representative housings use G3/4 entries, but the exact number and arrangement should be confirmed for the model. Cable glands must match the cable diameter, armor type, gas or dust protection concept and environmental rating. Unused entries need certified stopping plugs. Grounding and bonding should follow local hazardous-area standards. The installer should not drill additional holes or substitute ordinary waterproof connectors. A wiring diagram should show power, network, wiper, IR and alarm paths before the housing is ordered.
Wipers improve availability when a camera is difficult to access, but they require control logic and periodic service. The system may activate the wiper manually, on a schedule or through a rain or contamination event. Repeated dry wiping can scratch a dirty window, while a worn blade may leave streaks. The maintenance plan should include approved replacement blades and inspection intervals. If the site contains sticky chemicals, a water-spray or wash system may be more suitable than a wiper-only housing.
An integrated IR housing provides a compact aligned solution and keeps the illuminator inside the hazardous-area product architecture. External lighting can cover a broader area or reduce heat inside the housing, but it requires its own certification, cabling and mounting. The 150 m Future Vision IR housing is suitable for a defined camera direction and lens. For longer ranges or multi-directional coverage, a laser or PTZ product may be more appropriate. The buyer should compare actual target detail, not only nominal illumination distance.
A standard bullet housing fits a fixed day/night camera at a gate, pipe rack or process line. A wiper housing is better for exposed outdoor or marine scenes. An IR wiper housing supports dark tank areas, storage yards and perimeters. Junction boxes protect cable transitions near the camera. Large facilities may use all four products across different camera points. The housing choice should reflect contamination, lighting, service access and required field of view for each location.
The RFQ should include hazardous classification, certificate standard, material, ambient temperature, internal camera dimensions, lens size, power consumption, IR need, wiper need, cable count, gland type, mounting orientation and quantity. The customer should provide a drawing of the internal assembly. Future Vision can then confirm whether the standard bullet, wiper or IR housing is suitable. The exact certificate and installation instructions should be reviewed before tooling or site approval.
Final validation should test focus, video quality, IR reflection, wiper operation, internal temperature, condensation, cable sealing and network stability. The housing should be closed with approved fasteners and inspected for correct flame-path and seal condition. Production units need a repeatable assembly procedure so the lens remains aligned with the window. By matching the enclosure, camera module, optics, power and hazardous-area installation, Future Vision camera housings can provide a practical OEM route to customized industrial CCTV without sacrificing safety or environmental protection.
