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The RapidConnect 48W Wall Mount Fibre Enclosure provides a compact, secure termination and distribution point for indoor fibre optic networks. Its lockable door, modular connector faceplates and organised internal cable management support efficient installation, patching and maintenance.
Depending on the selected faceplate configuration, the enclosure accommodates up to 48 fibres with LC or LCA connectors, 24 fibres with SC or SCA connectors, or 12 fibres with ST connectors. Fibre adaptors are sold separately.
A wall mount fibre enclosure provides a secure, accessible termination and distribution point for fibre optic cables when a conventional equipment rack is unavailable, unnecessary or impractical. By bringing cable entry, fibre management, splicing and patching together in one compact unit, the enclosure protects delicate connections while giving technicians controlled access for testing, maintenance and future network changes.
However, choosing an enclosure involves more than matching a box to the number of fibres in a cable. Designers must consider connector density, termination method, cable entry, bend radius, splice storage, future capacity and the installation environment. If any of these factors are overlooked, an enclosure that appears suitable on paper may become overcrowded or difficult to maintain.
The RapidConnect 48W Wall Mount Enclosure addresses these requirements in a compact indoor format. Its modular faceplate system supports several common connector styles, while its lockable door helps protect the termination area from unintended access or disturbance. This guide explains how wall mount enclosures work, how to select and install them, and where the RapidConnect 48W fits within a well-planned fibre network.
A wall mount fibre enclosure is a protective housing installed directly onto a suitable wall or vertical surface. It creates an organised transition between an incoming fibre optic cable and the connectorised fibres or patch leads that serve network equipment, another cabling segment or a local distribution point.
Depending on the design, an enclosure may accommodate cable glands, strength-member restraints, splice trays, pigtails, adaptors, modular faceplates and fibre service loops. Together, these components protect the optical path and keep each connection identifiable and accessible.
The same product category may also be described as a wall mount fibre patch panel, fibre optic wall box, fibre termination enclosure or fibre distribution box. Although the names vary, the fundamental purpose remains consistent: protect, terminate, organise and distribute optical fibres without requiring a 19-inch equipment rack.
Importantly, an enclosure is not merely a storage box. Fibre performance depends on precise core alignment, clean connector end faces and controlled cable routing. Therefore, the enclosure must support the fibre without crushing it, creating tight bends or allowing movement to reach a splice or connector. It must also provide enough room for a technician to work without disturbing adjacent live services.
A correctly configured enclosure performs several related functions.
First, it establishes a defined cable entry point. The incoming cable passes through a suitable gland or protected opening before the cable sheath and strength members are restrained. As a result, external movement or pulling force is less likely to reach the internal fibres.
Second, the enclosure provides space for termination. Installers may fusion-splice the incoming fibres to connectorised pigtails, install field-terminated connectors or route a compatible pre-terminated fibre assembly into the enclosure. The correct method depends on the cable system, available equipment, project programme and performance requirements.
Third, the enclosure presents an accessible patching interface. Adaptors mounted in the faceplate align the terminated fibres with outgoing patch leads. Consequently, technicians can connect, disconnect or reassign services without handling the permanent cable unnecessarily.
Finally, the enclosure protects fibre routing and reserve length. Service loops allow future access to a splice or connector, while internal guides help keep fibres within their specified bend radius. A lockable door can provide an additional level of access control in shared or publicly accessible areas.
Understanding the internal components makes it easier to specify a complete system. It also prevents a common procurement problem: ordering the enclosure but overlooking the adaptors, pigtails, splice management or cable-entry hardware required to make it operational.
Connector faceplates form the visible patching interface. Each faceplate contains openings designed for a particular adaptor style and density. A modular system allows the installer to select faceplates that match the specified LC, SC, ST or other supported connector format.
Faceplates should not automatically be described as fibre cassettes. A cassette usually refers to an enclosed functional module, whereas a faceplate primarily supports adaptors. Using the correct term helps designers and suppliers understand exactly which components the project requires.
An adaptor aligns two compatible connector ferrules. One side typically receives the pigtail or permanent cable connector, while the other receives the removable patch lead. Adaptors do not convert fibre type, connector polish or optical signals. Both mating connectors must be compatible.
Adaptors may be supplied separately from the enclosure. Therefore, the bill of materials should identify the adaptor style, polish, colour, quantity and mounting format instead of assuming that a faceplate arrives fully populated.
A fibre pigtail has a factory-terminated connector at one end and an unterminated fibre at the other. During fusion-spliced installation, the technician splices the unterminated end to an incoming cable fibre. The connector then plugs into the rear of the appropriate adaptor.
The splice tray protects fusion splices and organises the associated fibre. It must provide suitable holders for the splice protectors and enough routing space to avoid tight bends or overlapping fibre paths. Furthermore, the tray capacity must match the intended number of splices rather than only the number of adaptor ports.
Cable glands protect the cable at the enclosure entry and may provide mechanical retention. However, cable construction varies, so the gland must suit the cable diameter and application. Where the cable includes strength members, the enclosure arrangement should restrain them appropriately. This prevents tensile load from transferring to buffer tubes or individual fibres.
Fibre patch leads connect the adaptor interface to active equipment or another patching point. They should match the fibre mode, connector type and connector polish of the link. In addition, their length should allow an orderly route without creating loops that obstruct the enclosure door or expose the connectors to sideways force.
Internal routing space allows technicians to store controlled reserve length. Although spare fibre supports future rework, excessive slack can overcrowd a compact enclosure. Therefore, installers should store only a practical service loop and follow the cable or fibre manufacturer’s minimum bend-radius requirements.
Wall-mounted enclosures suit distributed network locations where a rack-mounted panel would consume unnecessary space or require additional infrastructure. Common applications include commercial buildings, schools, campuses, CCTV networks, industrial control rooms, telecommunications spaces, branch offices and remote equipment locations.
For example, a security network may use a wall enclosure to terminate a backbone cable near local switches that serve several cameras. Similarly, a school building may use one as a compact distribution point between the campus backbone and a local communications cabinet. Industrial facilities may also place an enclosure near control equipment, provided the selected enclosure suits the actual environmental conditions.
Nevertheless, wall mounting is not automatically the best option everywhere. A large communications room with several high-count cables may benefit from rack-mounted panels because they provide greater capacity and integrate with established rack cable management. Conversely, a small termination point with no nearby rack may favour a wall enclosure because it preserves floor and rack space.
The installation environment remains critical. Unless a documented rating states otherwise, an indoor wall enclosure should not be exposed to rain, wash-down, corrosive contaminants or uncontrolled dust. Outdoor and harsh industrial sites require an enclosure specifically designed and rated for those conditions.
Both formats can protect and present fibre connections. However, they solve different physical and operational problems.
| Consideration | Wall mount fibre enclosure | Rack mount fibre enclosure |
|---|---|---|
| Mounting | Directly onto a suitable wall or surface | Within a compatible 19-inch rack or cabinet |
| Space | Does not consume rack units | Uses allocated rack space |
| Typical role | Local or distributed termination | Centralised communications and equipment rooms |
| Capacity | Usually low to moderate | Commonly moderate to high |
| Expansion | Limited by enclosure size and wall space | Further panels can often be added to the rack |
| Cable routing | Determined by wall position and entry points | Integrated with rack pathways and managers |
| Security | Lockable door where provided | Depends on both panel and rack security |
| Access | Direct access at the wall location | Controlled by rack layout and surrounding equipment |
A wall enclosure is often the better choice when the project needs a compact, dedicated termination point close to the served equipment. It can also separate fibre connections from unrelated rack equipment. However, designers should consider working clearance, patch-lead routing and future expansion before choosing the wall position.
By contrast, a rack-mounted panel is often preferable when multiple cables converge in one communications room. Rack systems generally make it easier to coordinate high-capacity patching, horizontal and vertical cable management, and future panel additions.
Capacity planning should begin with individual fibres, not only cables or network services. A 12-core cable contains 12 individual fibres, even if the initial design activates only four. Designers must decide whether every fibre will be terminated immediately, stored for later use or left unallocated.
Duplex services can add another layer of confusion. A conventional duplex Ethernet connection typically uses one fibre to transmit and another to receive. Therefore, 24 terminated fibres may support 12 duplex links. However, the enclosure capacity should still be documented as individual fibres because this remains unambiguous across different applications.
Next, consider future growth. Selecting an enclosure that exactly matches the active requirement can leave no practical room for a later circuit, replacement pigtail or additional incoming cable. A reasonable spare-capacity allowance depends on the site, expected service life and likelihood of expansion. Nevertheless, modest additional capacity usually costs less than replacing an undersized termination point later.
Connector format also determines density. LC connectors have a smaller footprint than SC or ST connectors. Consequently, the same enclosure can present more LC fibres than larger connector styles. This explains why maximum capacity must always be stated with its connector configuration.
Finally, physical working space matters. A published maximum describes the number of supported terminations, but the internal arrangement must still accommodate cable preparation, splice trays, pigtails, reserve fibre and safe routing. For this reason, designers should evaluate the complete configuration rather than treating the maximum port number as the only selection criterion.
The connector system should follow the wider network design. An enclosure provides the mounting platform, but it cannot correct incompatible connectors or an inconsistent polish specification.
LC connectors use a compact form factor and latch mechanism. Because they occupy less faceplate space, they support higher termination density. This makes LC useful when a compact enclosure must present many fibres.
In RapidConnect terminology, LC denotes the applicable UPC-style configuration, while LCA identifies an APC configuration. The project documentation should state the exact connector and polish rather than relying on colour alone.
SC connectors use a larger push-pull body. They remain common across telecommunications, commercial and industrial fibre networks because they are straightforward to handle and widely supported. However, their larger footprint reduces the number of fibres that a compact faceplate can accommodate.
SC and SCA configurations must remain distinct. An APC connector has an angled ferrule end face, whereas a UPC connector uses a different physical-contact geometry. Mating them together can damage the end faces and create unacceptable optical performance.
ST connectors use a bayonet coupling and continue to appear in legacy networks and selected industrial systems. They require more faceplate area than LC connectors. Therefore, an ST configuration provides lower maximum density in the same enclosure.
FC connectors use a threaded coupling and may be specified for particular test, measurement, telecommunications or vibration-sensitive applications. If FC or FCA faceplates are required for the RapidConnect 48W, their availability and maximum capacity should be confirmed when ordering.
Regardless of format, connector inspection and cleaning remain essential. A correctly selected adaptor cannot compensate for contamination, damage or an incorrectly prepared end face.
The RapidConnect 48W Wall Mount Enclosure supports different maximum fibre counts according to the selected connector faceplates.
| Connector style | Maximum fibre capacity |
| LC or LCA | 48 fibres |
| SC or SCA | 24 fibres |
| ST | 12 fibres |
LC achieves the highest density because its smaller connector and adaptor footprint allows more ports within the available faceplate area. SC and SCA require more space, while ST requires more again.
These figures represent individual fibres, not duplex services. Therefore, a fully populated 48-fibre LC configuration may represent up to 24 conventional duplex fibre pairs. Actual service capacity still depends on the network architecture and how the fibres are assigned.
Where a mixed faceplate arrangement or FC/FCA connectivity is required, Anderson Corporation can confirm the available configuration and resulting capacity before ordering.
The enclosure configuration must support the chosen termination method. Each approach changes the components, installation workflow and internal space required.
Fusion splicing joins each incoming fibre to a factory-terminated pigtail. The splice sits inside a protective sleeve and splice tray, while the pigtail connector plugs into the rear of the faceplate adaptor.
This approach combines a controlled factory connector with a low-loss permanent splice. It also makes the adaptor interface easy to patch and maintain. However, fusion splicing requires suitable equipment, consumables and trained personnel. In addition, the enclosure must accommodate the splice tray, pigtails and routed fibre.
For a broader comparison of available methods, see Anderson Corporation’s guide to fibre optic termination options.
Field termination installs a connector directly onto the cable fibre at the site. Depending on the connector system, this may involve epoxy and polishing or a mechanical splice-style connector. Field termination can suit repairs and particular installation workflows, but performance depends on correct preparation, cleaving, assembly, inspection and testing.
Before selecting this method, installers should confirm that the connector body, boot and working process suit the available enclosure space. They should also allow enough fibre for safe access and possible retermination.
Pre-terminated cable arrives with factory-installed and tested connectors. Consequently, it can reduce on-site splicing and termination work. Nevertheless, the route, gland, pulling protection and enclosure entry must accommodate the connectorised end.
Designers must also plan how the fan-out or breakout enters the enclosure, where spare length will be stored and how the connectors will reach the rear adaptors without excessive bending. Review the detailed guide on how to install pre-terminated fibre optic cable before finalising the pathway and entry arrangement.
A suitable location protects the enclosure while keeping it accessible throughout the network’s service life. First, choose a structurally appropriate mounting surface with enough room for the enclosure, its open door and the technician’s hands and tools.
Next, review the incoming cable route. Top or bottom entry may simplify the installation, depending on the pathway. However, the cable should approach without a sharp turn immediately outside the gland. Likewise, outgoing patch leads need a supported route that does not place sideways load on the connectors.
The enclosure should remain accessible after other equipment, shelving or building services are installed. A technically sound termination point provides little operational value if a cabinet, ceiling panel or stored material later blocks it.
Environmental exposure also affects location selection. Avoid areas subject to water, condensation, excessive dust, impact or unauthorised traffic unless the product carries a suitable documented rating and the project design addresses those risks.
Australian customer cabling work may also be subject to regulatory and registration requirements. The Australian Communications and Media Authority’s Cabling Provider Rules explain the current requirements for registered cablers, applicable competencies and compliance with the Wiring Rules. Project-specific standards, manufacturer instructions and workplace safety requirements also apply.
The following process provides a general planning overview. It does not replace the product instructions, approved project documentation or work by appropriately qualified and registered personnel where required.
Before installation begins, verify the enclosure, faceplates, adaptors, pigtails or pre-terminated assembly, splice tray, splice protectors, cable glands and patch leads. Also confirm fibre mode, connector style, polish and port allocation.
This check prevents avoidable delays. For example, the enclosure and faceplates may arrive without the adaptors needed to complete the termination.
Check the wall for suitable support and concealed hazards. Then allow clearance for cable approach, door operation and maintenance. Mark the fixing points carefully so the enclosure sits level and the planned cable entries align with the pathway.
Use fixings appropriate for the wall construction and installed load. Once mounted, confirm that the enclosure remains stable and that the door opens freely. Do not rely on the incoming cable or conduit to support the enclosure.
Remove only the plugs required for the installation. Fit suitable glands, bushes or entry protection before introducing the cable. Unused openings should remain closed to reduce unnecessary dust entry and prevent accidental contact with the internal fibres.
Feed the cable into the enclosure without exceeding its permitted pulling tension or bend radius. Secure the sheath and strength members as the cable design requires. External movement should stop at the restraint point rather than reach the buffer tubes, fibres, splices or connectors.
Fit the selected faceplates in the required positions. Then install compatible adaptors with consistent orientation. Blank unused positions where appropriate, and confirm that every adaptor matches the connector and polish specification.
Prepare the cable using tools and methods suited to its construction. Route buffer tubes and individual fibres through the intended management paths. If fusion splicing, organise the splices in the compatible tray and protect every fibre from tight bends, pinching and excessive restraint.
Inspect and clean connector end faces before connection. Route patch leads so that the door can close without trapping them. In addition, support cables outside the enclosure so their weight does not pull on the adaptor interface.
Apply durable labels that correspond with the network schedule. Next, complete the required continuity, polarity and optical testing. Finally, record port assignments, fibre identifiers and baseline results for future maintenance.
Optical fibre can experience additional attenuation when bent too tightly. A severe bend may cause macrobending loss, while local pressure or over-tight restraint can contribute to microbending. Either condition may degrade performance without producing obvious external damage.
For this reason, installers should follow the minimum bend radius specified for the cable, buffer tube, pigtail or patch lead. The required radius may differ during installation and after the cable is secured. Generic rules of thumb should not override the manufacturer’s documented limit.
Inside the enclosure, route fibres in smooth curves and use the intended guides. Avoid sharp corners, crossed fibres and cable ties tightened directly around delicate fibre units. Moreover, keep service loops clear of adaptor backs, splice holders, locks, hinges and door edges.
Reserve length should support maintenance, not create congestion. A technician should be able to access one splice or pigtail without pulling several unrelated fibres from position. Therefore, orderly routing improves both immediate performance and long-term serviceability.
Good labelling turns a group of visually similar fibres into a maintainable network. Each enclosure should have a unique identifier linked to the site drawings or network database. Likewise, the incoming cable, individual fibres and adaptor ports should correspond with the approved schedule.
Useful records may include:
Labels should remain legible and should not obstruct connectors or fibre routing. Furthermore, installers should update the records whenever a service moves. An accurate as-built schedule reduces troubleshooting time and lowers the risk of disconnecting the wrong circuit.
Contamination is one of the most common causes of avoidable connector loss. A small particle on an end face can block the optical path, prevent correct physical contact or transfer contamination to the mating connector.
Therefore, technicians should follow an inspect, clean and inspect-again process using suitable equipment and procedures. Dust caps protect connectors during transport and storage, but they do not guarantee a clean end face. For practical guidance, see fibre connector cleaning—how to do it right.
Testing requirements depend on the project. At a minimum, the team may need to confirm continuity and polarity. Acceptance testing may also include insertion-loss measurement in the required direction or directions. Meanwhile, OTDR testing can help characterise events and locate faults where the project specification calls for it.
Record the baseline results against the correct fibre and port identifiers. Later, those results help maintenance teams distinguish a new fault from the link’s original performance. If a patch lead, adaptor, splice or termination changes, inspect, clean and retest the affected path before returning it to service.
Current active fibres rarely tell the whole story. Spare fibres, future services and possible cable additions can quickly consume the remaining positions. Therefore, allow sensible capacity for the expected service life.
A 24-fibre enclosure does not necessarily provide 24 conventional duplex links. Where each link uses two fibres, it provides up to 12 fibre pairs. Document capacity in individual fibres to avoid ambiguity.
Faceplates, adaptors, pigtails, splice trays and cable glands are separate functions. Confirm what the product includes and list every additional component required.
An APC connector must not be mated with a UPC connector. Beyond poor performance, the incompatible end-face geometries may cause physical damage.
A gland may suit the cable diameter but still fail to accommodate a pre-terminated breakout. Confirm the complete entry arrangement before ordering or installing the cable.
Excessive spare length, oversized components or poor routing can make a nominally compatible configuration difficult to maintain. Plan the internal layout, not only the port count.
Tight bends can occur at glands, behind faceplates or where patch leads exit the door. Check the complete path and follow the relevant manufacturer limits.
Without suitable restraint, external cable movement can reach the termination. Secure the cable construction as specified without crushing it.
Unclear port identification increases maintenance time and creates avoidable service risk. Label during installation and update the records after every change.
A lockable metal door does not automatically make an enclosure weatherproof, dustproof or corrosion resistant. Match the documented environmental rating to the installation location.
The RapidConnect 48W Wall Mount Enclosure creates a compact indoor termination and patching point for networks that do not require a rack-mounted panel. At 280 × 230 × 45 mm, it can fit locations where wall area and projection depth are limited, subject to adequate working clearance and cable routing.
Its modular connector faceplates allow the enclosure to support several established connector formats. A fully configured LC or LCA arrangement accommodates up to 48 fibres. Alternatively, SC or SCA supports up to 24 fibres, while ST supports up to 12 fibres. Consequently, designers can align the enclosure with the network’s existing connector standard instead of changing the optical interface simply to suit the enclosure.
The lockable door protects the patching and termination area from casual contact and unintended disturbance. This feature can be particularly useful in shared communications spaces, service areas and distributed locations where unrestricted access would increase operational risk. However, access control should form part of the wider site-security plan.
Top and bottom entry options provide flexibility when coordinating the enclosure with cable pathways. Installers can choose the entry direction that supports an orderly approach and suitable bend radius. In addition, the front-access format allows technicians to inspect, patch and maintain the termination without requiring a full communications rack.
Typical applications include commercial premises, education networks, CCTV systems, branch offices, telecommunications spaces and indoor industrial control locations. Suitability still depends on fibre count, connector configuration, environment, cable construction and future expansion requirements.
The enclosure includes connector faceplates as standard. Fibre adaptors are not included and must be ordered separately in the correct type and quantity. Depending on the termination method, the complete installation may also require pigtails, splice management, cable glands and patch leads.
| Specification | RapidConnect 48W Wall Mount Enclosure |
| Product type | Indoor wall mount fibre enclosure |
| Dimensions | 280 × 230 × 45 mm |
| Maximum LC/LCA capacity | 48 fibres |
| Maximum SC/SCA capacity | 24 fibres |
| Maximum ST capacity | 12 fibres |
| Connector interface | Modular connector faceplates |
| Cable entry | Top and bottom openings |
| Access | Lockable front door |
| Faceplates | Included as standard |
| Fibre adaptors | Not included; order separately |
Because connector and project requirements vary, confirm the final faceplate, adaptor and accessory configuration before ordering.
The enclosure forms the foundation of the termination point, but it is not the entire system. Before placing an order, prepare a configuration schedule that covers:
Also confirm fibre mode and connector polish across the complete link. Ordering an SC adaptor, for example, is not enough if the project has not distinguished SC/UPC from SC/APC.
Anderson Corporation can help match the faceplates, adaptors and associated components to the fibre count and termination method. This configuration step reduces ordering errors and helps ensure that the installed enclosure remains accessible and practical to maintain.
Choosing the right wall mount fibre enclosure involves more than matching an enclosure to the fibre count. Instead, successful fibre termination begins with understanding connector capacity, termination methods, cable entry, splice management, bend radius, installation access and future network requirements.
That is why Anderson Corporation is developing a comprehensive Knowledge Centre dedicated to wall mount fibre enclosures and associated fibre termination systems.
Whether you are designing a commercial network, specifying a telecommunications installation or terminating fibre for CCTV and industrial infrastructure, our technical articles will help you make informed decisions with confidence.
As the Knowledge Centre continues to grow, you will find practical guidance covering every stage of wall mount fibre enclosure selection, configuration, installation, testing and lifecycle management.
If you are new to wall mount fibre enclosures, these articles explain their purpose, principal components and role within a fibre optic network.
You will learn how enclosures protect fibre terminations, organise connections and provide accessible distribution points in locations where a conventional equipment rack may be unavailable or unnecessary.
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Once you understand the fundamentals, you can explore the technical details that determine enclosure capacity, accessibility and long-term performance.
For example, these guides examine connector density, faceplate configurations, cable restraint, splice management, bend radius and internal fibre routing.
Sometimes selecting the right enclosure requires comparing several termination formats.
Therefore, our comparison guides explain the differences between wall mount and rack mount designs, connector formats, termination methods and enclosure capacities.
As a result, consultants, contractors and network operators can select the most appropriate configuration for each installation.
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Before purchasing a wall mount fibre enclosure, it is important to understand how fibre count, connector type, termination method and future expansion affect the completed configuration.
Accordingly, our procurement and specification guides explain how to compare products, prepare a complete bill of materials and avoid missing components.
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Even a well-designed enclosure requires correct installation.
Consequently, our installation guides focus on mounting position, cable entry, fibre preparation, internal routing, termination and documentation.
Whether you are installing fusion-spliced cable or a pre-terminated fibre system, these resources provide practical guidance for creating an accessible and maintainable termination point.
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Reliable fibre performance depends on more than the enclosure itself. Connector cleanliness, polarity and optical testing also influence the completed link.
For this reason, these articles explain how to inspect, clean and test fibre connections during installation, commissioning and maintenance.
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Occasionally, fibre termination points experience faults caused by contamination, poor cable restraint, incorrect connector selection or inadequate internal routing.
Rather than replacing components without identifying the cause, technicians should investigate the complete optical and mechanical path.
Accordingly, our problem-solving articles examine common enclosure faults and explain how to prevent them from recurring.
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A wall mount fibre enclosure should remain accessible and maintainable throughout the network’s service life.
Therefore, asset owners should consider inspection, cleaning, documentation, spare capacity and future network modifications from the beginning of the project.
Ultimately, these resources help organisations protect their fibre infrastructure and reduce avoidable service disruptions.
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Every industry presents different network, environmental and operational requirements.
For example, commercial buildings often prioritise compact distribution points, while industrial facilities may require stronger access control and careful coordination with surrounding infrastructure.
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The RapidConnect 48W Wall Mount Enclosure provides a compact and configurable fibre termination point for indoor networks.
These product guides explain its connector capacity, faceplate options, installation requirements and compatible components. Therefore, designers and installers can configure a complete enclosure rather than ordering individual parts without a coordinated system.
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It is a protective termination and distribution enclosure fixed directly to a wall or suitable vertical surface. It organises incoming fibre cable, terminations, splices, adaptors and patch leads without requiring a 19-inch rack.
The terms often overlap. A wall mount fibre patch panel usually refers to an enclosure that presents adaptor ports for patching. However, the complete enclosure may also manage cable entry, splices, pigtails and service loops.
It supports up to 48 fibres with LC or LCA connectors, 24 fibres with SC or SCA connectors, or 12 fibres with ST connectors. The connector footprint determines the available density.
No. The capacity refers to individual fibres. A conventional duplex service normally uses two fibres, so 48 terminated fibres may provide up to 24 duplex fibre pairs.
No. Connector faceplates are included as standard, but adaptors must be ordered separately. Confirm the connector type, polish and quantity before ordering.
A splice tray is generally required when incoming fibres are fusion-spliced to pigtails. It may not be required when a compatible pre-terminated system connects directly to the adaptors. The enclosure configuration should follow the chosen termination method.
Potentially, provided the cable entry, connector protection, breakout dimensions, routing space and bend radius suit the assembly. Confirm these details before manufacturing or ordering the cable.
No. Their end-face geometries are incompatible. The network should use matching connector polish at every mating interface.
The product should be treated as an indoor enclosure unless Anderson Corporation confirms a documented environmental rating for the proposed conditions. Outdoor installations require purpose-designed protection against the relevant exposure.
The answer depends on likely network growth, spare fibres, future cables and the cost of later replacement. Avoid selecting an enclosure solely for the number of fibres active on day one. Instead, assess the expected service life and retain practical working space.
A wall mount fibre enclosure should protect more than the visible connector interface. It must secure the incoming cable, organise termination components, maintain safe fibre routing and give technicians practical access throughout the network’s service life.
Therefore, successful selection starts with the complete system: fibre count, connector format, termination method, cable entry, environmental conditions, testing requirements and future growth. Careful planning at this stage reduces overcrowding, incomplete orders and avoidable maintenance problems later.
The RapidConnect 48W Wall Mount Enclosure provides a compact, modular option for indoor fibre termination and distribution. With support for up to 48 LC/LCA fibres, 24 SC/SCA fibres or 12 ST fibres, it can be configured around several common network interfaces while preserving valuable rack space.
Contact Anderson Corporation to confirm the faceplates, adaptors and accessories required for your RapidConnect 48W configuration and request a quotation for your project.
Be sure to check out the rest of the rapidconnect Enclosure Range for other wall, rack or fixed enclosures!
Check out the official Anderson Corporation YouTube Channel for more Fibre Optic Information!
