- (61) 3 9761 7600
- sales@andcorp.com.au
The RapidConnect Fully Loaded 1RU Rackmount Fibre Enclosure includes the selected faceplates, adaptors and colour-coded pigtails. SC configurations support up to 48 fibres, while LC configurations support up to 72 fusion-spliced fibres. Therefore, installers receive a coordinated sliding enclosure ready for field cable preparation, fusion splicing and testing.
The Fully Loaded 1RU Rackmount Fibre Enclosure combines the RapidConnect 148S sliding enclosure with faceplates, adaptors and colour-coded pigtails selected for the project. Therefore, installers receive a coordinated fibre termination solution ready for cable entry, fusion splicing, connector cleaning and optical testing.
Anderson Corporation configures the enclosure for SC or LC connectivity. Furthermore, customers can select OS2 singlemode or OM4 multimode fibre. For OS2 systems, customers can also choose UPC or APC connectors.
SC configurations support up to 48 fibres. Meanwhile, LC configurations support up to 72 fusion-spliced fibres.
Two 12-port LC Quad faceplates can physically present 96 fibres. However, the enclosure’s 1RU height provides room for a maximum of three stacked 24-fibre splice cassettes. Consequently, the internal splice capacity limits an LC configuration to 72 fusion-spliced fibres.
Because Anderson Corporation installs the selected connectivity components before delivery, contractors do not need to assemble the faceplates, adaptors and pigtails separately. As a result, the RapidConnect 148S-FL provides a clearly defined and repeatable rackmount termination solution.
A fully loaded fibre enclosure includes the main components required to present terminated fibres at the front of a rack. Specifically, Anderson Corporation configures the RapidConnect Fully Loaded 1RU Rackmount Fibre Enclosure 148S-FL with the selected:
The term “fully loaded” does not mean that Anderson Corporation has terminated the incoming fibre optic cable. Instead, it means that Anderson Corporation has fitted the selected faceplates, adaptors and matching pigtails before delivery.
Once the enclosure reaches the project site, the installer secures and prepares the incoming cable. Next, the installer fusion splices each cable fibre to its corresponding pigtail. Afterwards, the installer protects and organises each completed splice inside the correct cassette.
Finally, the installer cleans the connector end faces and tests the completed optical links. Therefore, the 148S-FL arrives ready for field cable preparation and fusion splicing. However, the installer must still complete the incoming cable termination, cleaning and testing on site.
Every RapidConnect Fully Loaded 1RU Rackmount Fibre Enclosure 148S-FL combines the enclosure hardware and connectivity components into one coordinated assembly. However, the exact quantities depend on the connector format, fibre category, connector polish and fibre count.
The steel enclosure occupies one rack unit and incorporates a sliding internal tray. Consequently, technicians can draw the tray forward to reach the internal fibres and splice cassettes.
Anderson Corporation installs faceplates that match the specified connector format and fibre count. Therefore, the number and style of adaptor positions correspond with the required front-panel presentation.
Anderson Corporation fits the selected SC or LC adaptors into the faceplates before delivery. As a result, the required connector interface already forms part of the enclosure when it arrives on site.
Anderson Corporation includes pigtails that match the selected fibre category, connector style and polish. Furthermore, the standard fibre colour sequence assists installers with identification, fusion splicing and documentation.
Anderson Corporation matches the splice cassette quantity to the selected configuration. Moreover, the 1RU enclosure can accommodate up to three stacked 24-fibre splice cassettes.
The enclosure also includes a record book for fibre numbers, port assignments and destinations. Therefore, installers and network managers can maintain an organised record of the completed termination.
Customers should confirm splice protectors, cable glands and other installation consumables when ordering. After all, different cable constructions and projects may require different accessories.
The RapidConnect Fully Loaded 1RU Rackmount Fibre Enclosure 148S-FL uses the same fundamental sliding enclosure platform as the unloaded 148S model. However, the two products address different purchasing and installation requirements.
The unloaded RapidConnect 148S Rackmount Sliding Enclosure suits customers who want to select and install faceplates, adaptors and pigtails separately. In contrast, Anderson Corporation prepares the Fully Loaded 1RU Rackmount Fibre Enclosure 148S-FL with the nominated connectivity components before delivery.
This distinction makes the fully loaded enclosure particularly useful when a bill of materials specifies a complete termination assembly. Moreover, a defined configuration can simplify purchasing across projects that use consistent rack layouts.
The enclosure measures 430 mm wide, 300 mm deep and 44 mm high. Therefore, it occupies one rack unit while providing space for rear cable entry, fibre routing and internal splice management.
Although the faceplates support several connector arrangements, front-panel capacity does not always equal internal splice capacity. Consequently, customers must consider the connector presentation and cassette capacity together.
The RapidConnect Fully Loaded 1RU Rackmount Fibre Enclosure 148S-FL suits installations where technicians will fusion splice an incoming fibre optic cable to connectorised pigtails inside the enclosure.
First, the installer mounts the enclosure in a suitable 19-inch rack or cabinet. Next, the installer brings the incoming cable through the rear entry. Afterwards, the installer secures the cable according to its construction and the project design.
The installer then prepares the cable sheath and routes the fibres towards the splice cassettes. Subsequently, the installer fusion splices each incoming fibre to its corresponding pigtail.
Next, the installer places each splice protector into its cassette holder. Meanwhile, the installer arranges the remaining fibre length in controlled loops that avoid tight bends, twists and pressure points.
Finally, the installer cleans and inspects the front connector interfaces before testing the completed links. Therefore, the installed enclosure provides an organised transition between the incoming cable fibres and the front patching interface.
Anderson Corporation matches the faceplates, adaptors and pigtails to the ordered configuration. Nevertheless, installation quality still depends on correct cable preparation, fusion splicing, fibre routing, cleaning and testing.
Customers can easily misinterpret enclosure capacity because suppliers may use the term for several different measurements. Therefore, the Fully Loaded 1RU Rackmount Fibre Enclosure 148S-FL capacity requires three separate considerations:
For SC configurations, two 12-port SC Duplex faceplates can present 48 fibres. Consequently, the enclosure supports a maximum of 48 SC fibres.
For LC configurations, two 12-port LC Quad faceplates can physically present 96 fibres. However, a fusion-spliced configuration also requires internal space for pigtails, splice protectors and managed fibre loops.
The enclosure can hold a maximum of three stacked 24-fibre splice cassettes. As a result, it can manage up to 72 fusion splices. Therefore, the 148S-FL supports a maximum practical LC configuration of 72 fusion-spliced fibres.
The selected connector presentation and internal cassette arrangement determine the available fibre count. Therefore, customers should always nominate the connector style and required fibre quantity together.
Anderson Corporation can configure the enclosure with up to 48 SC fibres. Depending on the project, available fibre counts include:
A 48-fibre SC configuration uses two 12-port SC Duplex faceplates. Because each duplex adaptor presents two fibres, the two faceplates provide 48 individual fibre connections.
Furthermore, customers can select OM4 multimode, OS2 UPC or OS2 APC connectivity. Anderson Corporation will then match the faceplates, adaptors and pigtails to the selected configuration.
Anderson Corporation can configure the enclosure with up to 72 fusion-spliced LC fibres. Depending on the project, available fibre counts include:
The faceplate and adaptor arrangement must match the required fibre count. In addition, the enclosure must contain enough splice cassettes for the nominated number of fusion splices.
Although two LC Quad faceplates provide 96 physical fibre positions, the internal cassettes can manage only 72 fusion splices. Therefore, the enclosure supports a maximum practical LC configuration of 72 fibres.
SC connectors use a larger form factor than LC connectors. Nevertheless, two 12-port SC Duplex faceplates allow the 148S-FL to support up to 48 fibres.
Each SC Duplex adaptor presents two individual fibre connections. Therefore:
SC connectivity may suit installations where the active equipment, patch leads or existing network standard already uses SC connectors. In addition, some technicians may find the larger connector body easier to handle.
Customers can select:
However, the selected connector type must match the patch leads, equipment interfaces and other optical components throughout the link.
Some standard schedules may list SC configurations in 12-, 24- and 36-fibre versions. However, the enclosure does not limit SC capacity to 36 fibres. Instead, two 12-port SC Duplex faceplates extend the platform to 48 SC fibres.
LC connectors use a smaller form factor than SC connectors. Consequently, LC adaptors can present more fibres within the same faceplate area.
The enclosure can use LC Duplex or LC Quad adaptor arrangements. For example, lower fibre counts may use LC Duplex adaptors, while higher-density configurations may use LC Quad adaptors.
Customers can select:
LC connectivity suits many active network devices and high-density patching systems. However, customers must still match the connector style to their equipment, patch leads and complete optical design.
For higher-density configurations, internal fibre management becomes just as important as front-panel capacity. Therefore, Anderson Corporation considers the adaptor layout, pigtail quantity and cassette requirement as one coordinated configuration.
An LC Quad adaptor presents four fibres within one faceplate position. Therefore, a 12-port LC Quad faceplate can physically present 48 fibres.
The 148S-FL accepts two 12-port faceplates. Consequently:
However, these figures describe front-panel capacity only. They do not account for the space that pigtails, splice protectors and managed fibre loops require inside the enclosure.
The enclosure’s 1RU height provides room for a maximum of three stacked splice cassettes. Because each cassette manages up to 24 splices, the maximum internal capacity equals:
3 splice cassettes × 24 splices = 72 fusion splices
As a result, the RapidConnect 148S-FL supports a maximum of 72 fusion-spliced LC fibres.
Although two LC Quad faceplates contain enough positions for 96 fibres, installers cannot manage 96 fusion splices within the available internal height. Therefore, the practical LC capacity remains 72 fibres.
The enclosure has separate front-panel and internal splice limits.
Specifically, the front-panel figure measures the number of connections that the faceplates and adaptors can present. In contrast, the splice figure measures the number of fusion splices that the internal cassettes can organise and protect.
The following table shows the difference:
| Configuration | Front-panel capacity | Practical splice capacity |
|---|---|---|
| Two 12-port SC Duplex faceplates | 48 fibres | 48 fibres |
| Two 12-port LC Quad faceplates | 96 fibres | 72 fibres |
| Three 24-fibre splice cassettes | Not applicable | 72 fibres |
Accordingly, an SC configuration can use the full 48-fibre capacity of two SC Duplex faceplates. Conversely, two LC Quad faceplates provide more connection positions than the enclosure can internally support for fusion splicing.
As a result, Anderson Corporation describes the enclosure as supporting:
However, the final figure does not describe a 96-fibre fusion-spliced configuration. Instead, it represents the theoretical connection capacity of the two LC Quad faceplates.
The RapidConnect Fully Loaded 1RU Rackmount Fibre Enclosure 148S-FL can accommodate up to three stacked splice cassettes. In turn, each cassette manages up to 24 fusion splices.
Accordingly:
| Number of splice cassettes | Maximum splice capacity |
|---|---|
| One cassette | 24 fibres |
| Two cassettes | 48 fibres |
| Three cassettes | 72 fibres |
Anderson Corporation matches the cassette quantity to the required fibre count. For example, a 24-fibre configuration may use one cassette. Meanwhile, a 48-fibre configuration can use two cassettes.
A 72-fibre LC configuration requires three 24-fibre cassettes. Consequently, this configuration uses the maximum available internal cassette height.
However, installers must still route the pigtails and incoming fibres correctly. After all, simply adding three cassettes does not guarantee effective fibre management.
Each cassette must accommodate:
Furthermore, each cassette cover must close without pressing against fibres or splice protectors. Likewise, the completed stack must fit inside the enclosure without obstructing the sliding tray.
A 72-fibre LC configuration requires three 24-fibre splice cassettes. Therefore, installers should plan the cassette allocation before they begin splicing.
For example:
This structure creates a logical relationship between fibre numbering and cassette location. Furthermore, it simplifies identification, testing and future maintenance.
Where possible, installers should route the pigtails directly towards their allocated cassette. Similarly, incoming fibres should follow clear paths from the rear cable entry to the correct cassette.
Because the cassettes sit one above another, installers should ensure that:
At the 72-fibre maximum, careful routing becomes particularly important. In contrast, lower-density configurations provide more internal working space because they use fewer cassettes.
Singlemode connector polish affects reflected light at a physical connection. Therefore, customers must select UPC or APC interfaces according to the complete optical system.
UPC connectors use an ultra-physical contact polish. Typically, blue connector bodies and adaptors identify OS2 UPC interfaces.
Anderson Corporation can configure the 148S-FL with SC UPC or LC UPC connectivity. However, the installed equipment, patch leads and other termination points must use the corresponding interface.
APC connectors use an angled physical contact polish. Typically, green connector bodies and adaptors identify OS2 APC interfaces.
Anderson Corporation can also configure the enclosure with SC APC or LC APC connectivity. Because the angled end face helps control reflected light, designers often select APC connectors where return loss requires particular attention.
However, technicians should never directly mate UPC and APC connectors. Their end-face geometries differ. Consequently, connecting them can cause excessive loss and may damage both connector end faces.
Therefore, customers must confirm the required connector polish before ordering.
The installed pigtails must match the fibre category throughout the optical system. Therefore, Anderson Corporation offers the RapidConnect 148S-FL for OS2 singlemode and OM4 multimode applications.
Customers can combine OS2 singlemode pigtails with SC or LC connectivity. Furthermore, they can select UPC or APC polish to match the required interface.
Before ordering an OS2 enclosure, confirm:
Because UPC and APC connectors do not share the same end-face geometry, the project documentation should clearly identify the required polish. Additionally, the product description and ordering information should use the same terminology.
Customers can select OM4 multimode pigtails with SC or LC connectivity. Moreover, the adaptors and pigtails should use the appropriate OM4 colour identification.
The installed cable, patch leads and transceivers must support the same multimode system. Therefore, installers should not mix fibre categories simply because the connectors can physically mate.
Correct fibre matching maintains a consistent optical path from the active equipment through the enclosure and across the installed cable.
The faceplates, adaptors and pigtails operate as one coordinated assembly. Therefore, every component must match the required connector style, polish, fibre category and fibre count.
First, the faceplates establish the number and arrangement of the front connector positions. Meanwhile, the adaptors secure the connectors and create the mating interface between the internal pigtails and external patch leads.
Finally, the pigtails connect the front adaptor positions to the incoming cable fibres through fusion splicing.
Because Anderson Corporation installs these components before delivery, customers can specify a complete enclosure configuration. Consequently, they do not need to calculate separate quantities for each standard faceplate, adaptor and pigtail.
Factory preparation also creates a consistent starting arrangement. Nevertheless, installers should inspect the enclosure and verify its configuration before preparing the incoming cable.
The inspection should confirm:
If the enclosure differs from the project documentation, the installer should resolve the discrepancy before beginning the termination.
The sliding tray gives technicians access to the internal fibre management area while the enclosure remains in the rack. Therefore, they can complete installation, inspection and maintenance work from the front of the cabinet.
The tray should move smoothly throughout its full travel. However, technicians must avoid pulling, twisting or trapping fibres as they open and close it.
Adequate service length plays an important role. If the fibres remain too short, opening the tray may place tension on the pigtails or completed splices. Conversely, excessive unmanaged fibre can interfere with the tray mechanism or create unnecessary crossings.
For this reason, installers should route the fibres and pigtails in controlled loops. In addition, they should test the complete tray movement before closing the enclosure.
The tray should open and close without:
The sliding design improves access. Nevertheless, careful routing determines whether technicians can continue to use that access safely throughout the enclosure’s service life.
Optical fibres can experience increased attenuation or physical damage when installers bend them too tightly. Therefore, every fibre path inside the enclosure must maintain an appropriate bend radius.
The Fully Loaded 1RU Rackmount Fibre Enclosure 148S-FL provides internal routing space and splice cassettes to support organised fibre management. However, the hardware cannot correct poor installation practices.
Installers should avoid:
Instead, installers should guide fibres along smooth and predictable paths. Furthermore, they should distribute the stored fibre length so that tray movement does not substantially change the fibre loops.
The appropriate minimum bend radius depends on the cable and fibre component. Therefore, technicians should follow the cable manufacturer’s requirements and the project specification.
The RapidConnect Fully Loaded 1RU Rackmount Fibre Enclosure 148S-FL uses rear cable entry. Consequently, the rack or cabinet must provide enough space for the incoming cable, its required bend radius and the selected securing arrangement.
Before mounting the enclosure, the installer should consider:
The incoming cable should not transfer mechanical force to its internal fibres. Instead, the installer must secure the cable sheath and strength members so that external movement cannot pull on prepared fibres or completed splices.
After securing the cable, the installer should remove only the sheath length required for internal routing. Excessive sheath removal can expose more fibre than necessary. Conversely, insufficient preparation length can restrict routing and cassette access.
Therefore, the installer should prepare the cable according to its construction and the enclosure layout. In addition, the installer should manage strength members, water-blocking elements and other components according to the applicable installation requirements.
A fully loaded enclosure can simplify product selection, purchasing and project preparation.
Anderson Corporation matches the faceplates, adaptors, pigtails and splice cassettes to the specified configuration. Therefore, customers do not need to select every standard component independently.
A fully loaded configuration combines several items into one defined assembly. Consequently, purchasing teams can order a complete enclosure instead of building the solution from multiple separate product lines.
Anderson Corporation installs the adaptors to match the selected faceplates. As a result, the front presentation follows the nominated project configuration.
This consistency can provide particular value across multi-site projects or repeated rack designs. Furthermore, it can make documentation and future identification more straightforward.
The technician does not need to install every adaptor and establish the initial pigtail arrangement before preparing the cable. Therefore, the installer can focus on cable entry, fusion splicing, fibre routing and testing.
A defined enclosure configuration identifies the connector type, fibre category, polish and fibre count. However, the project documentation should still state these requirements in plain language rather than relying only on a product code.
Anderson Corporation can match the faceplate, pigtail and cassette arrangement to the nominated fibre count. Consequently, a 72-fibre LC enclosure uses a different internal configuration from a 24-fibre enclosure.
Factory preparation does not remove the need for skilled installation. Nevertheless, it gives the installer a coordinated platform from which to complete the termination work.
The fully loaded and unloaded 148S enclosures use the same fundamental sliding 1RU platform. However, they suit different procurement and configuration requirements.
| Feature | Fully loaded 148S-FL | Unloaded 148S |
|---|---|---|
| Sliding 1RU enclosure | Included | Included |
| Faceplates | Anderson installs the selected faceplates | Customer selects them separately |
| Adaptors | Anderson installs the selected adaptors | Customer orders them separately |
| Pigtails | Anderson includes matching pigtails | Customer orders them separately |
| Splice cassettes | Anderson matches them to the configuration | Customer selects the required arrangement |
| Configuration | Defined before delivery | Assembled by the customer or installer |
| Primary benefit | Coordinated termination package | Component-level flexibility |
| Best suited to | Defined and repeatable installations | Custom or installer-assembled solutions |
Choose the fully loaded enclosure when the project requires a known connector and fibre configuration. For example, Anderson Corporation can prepare a 48-fibre OS2 LC UPC enclosure as one coordinated assembly.
Alternatively, choose the unloaded 148S Rackmount Sliding Enclosure when the installer wants to select and assemble the connectivity components separately.
Neither version suits every installation. Instead, the project’s procurement and configuration requirements should determine the correct choice.
The exact installation process depends on the cable construction, rack design and project specification. Nevertheless, the following sequence provides a practical overview.
First, check the product reference, fibre count, fibre category, connector style and polish. In addition, compare the enclosure with the project schedule before preparing the incoming cable.
Next, operate the sliding tray and inspect the faceplates, adaptors, pigtails and splice cassettes. Also, check the enclosure for transport damage.
Then, select a position that provides access to the sliding tray and enough room for rear cable entry. Furthermore, consider the route of the front patch leads.
Secure the enclosure within a suitable 19-inch rack or cabinet. Afterwards, confirm that the enclosure sits level and the tray moves freely.
Support the cable as it approaches the rear of the rack. Because the enclosure should not carry external cable loads, provide independent cable support where necessary.
Bring the cable through the rear entry and secure its sheath and strength members. However, avoid applying mechanical pressure to the exposed fibres.
Remove the necessary cable elements while retaining enough fibre length for routing and splicing. Subsequently, identify each fibre according to the cable colour code and project schedule.
Determine which fibre numbers each cassette will manage. For higher-density configurations, a planned allocation prevents unnecessary fibre crossings.
Guide the incoming fibres and pigtails along smooth paths into their allocated cassettes. Moreover, retain enough service length for fusion splicing and future access.
Fusion splice each incoming fibre to its corresponding pigtail. Next, protect the finished splice with the specified splice protector.
Place every splice protector into its cassette holder and arrange the fibre loops carefully. As a result, the cassette cover should close without compressing the fibres.
Position the cassettes so that fibres cannot become trapped between them. Furthermore, confirm that the completed stack fits within the available enclosure height.
Open and close the tray slowly while watching the internal fibres. If any fibre tightens, catches or shifts, correct its route before proceeding.
Inspect every connector end face before mating. If contamination appears, clean the connector with the correct fibre cleaning tool and inspect it again.
Finally, connect the correct patch leads and complete the required optical tests. Afterwards, record the results and update the enclosure identification record.
Connector cleanliness directly affects optical performance. Therefore, installers should inspect every connector before mating, even when the connector appears unused.
Dust, oil and other contamination can increase insertion loss and reflectance. Furthermore, mating a contaminated connector can transfer debris to the opposite interface or damage both end faces.
A suitable process includes:
The cleaning method must suit the connector format. For example, LC and SC connectors require tools for their respective ferrule sizes. Additionally, technicians should use fibre-specific consumables rather than general-purpose wipes or household cleaning products.
The RapidConnect Fibre Optic Cleaning Kit combines tools for connector cleaning and inspection.
Testing requirements should follow the project specification. Depending on the installation, the technician may complete:
However, visible light at the far end does not prove that the link meets its loss requirement. Therefore, technicians should use suitable calibrated test equipment and retain the completed results.
| Specification | RapidConnect 148S-FL |
|---|---|
| Product type | Fully loaded rackmount sliding fibre enclosure |
| Product reference | 148S-FL |
| Rack size | 1RU |
| Dimensions | 430 × 300 × 44 mm |
| Weight | 3.20 kg |
| Tray type | Sliding |
| Cable entry | Rear |
| Faceplate positions | Two 12-port faceplates |
| Connector families | SC and LC |
| Fibre categories | OS2 singlemode and OM4 multimode |
| Singlemode polish options | UPC and APC |
| Maximum SC capacity | 48 fibres with two 12-port SC Duplex faceplates |
| LC faceplate capacity | 96 fibres with two 12-port LC Quad faceplates |
| Maximum splice cassettes | Three stacked cassettes |
| Splice capacity per cassette | 24 fibres |
| Maximum internal splice capacity | 72 fibres |
| Maximum practical LC configuration | 72 fusion-spliced fibres |
| Adaptors | Anderson installs adaptors for the selected configuration |
| Pigtails | Anderson includes pigtails that match the configuration |
| Record book | Included |
| Rack compatibility | Suitable 19-inch rack or cabinet |
| Warranty availability | Eligible configurations may form part of the RapidConnect 25-Year System Warranty, subject to its conditions |
Customers should confirm specifications and component quantities when ordering. In particular, maximum-density configurations require a coordinated faceplate, pigtail and cassette arrangement.
Customers should identify the connector family, fibre category, connector polish and fibre count when requesting a quotation.
Available configurations include:
Available configurations include:
Available configurations include:
Available configurations include:
Available configurations include:
Available configurations include:
When requesting a quotation, specify:
Providing this information allows Anderson Corporation to match the faceplate capacity, pigtail quantity and splice cassette arrangement to the intended installation.
The RapidConnect Fully Loaded 1RU Rackmount Fibre Enclosure 148S-FL may form part of an eligible RapidConnect Enterprise Cabling Infrastructure System under the RapidConnect 25-Year System Warranty.
However, using a RapidConnect enclosure does not automatically qualify every installation. The complete system, selected products, installation practices, test results and documentation must satisfy the applicable warranty conditions.
Therefore, customers seeking warranty coverage should discuss the project with Anderson Corporation during the design or quotation stage. This early review allows the project team to identify the required products, installer obligations, testing and submission process before installation begins.
A Fully Loaded Rackmount Fibre Enclosure includes the selected faceplates, adaptors and pigtails. Therefore, the installer receives a coordinated termination enclosure ready for field cable entry, fusion splicing and testing.
No. Instead, the installer prepares the incoming cable and fusion splices its fibres to the supplied pigtails on site. Afterwards, the installer completes the cleaning and testing.
Customers can select several SC and LC fibre counts. Specifically, SC configurations extend to 48 fibres, while LC fusion-spliced configurations extend to 72 fibres.
The maximum SC capacity is 48 fibres. In this configuration, two 12-port SC Duplex faceplates each present 24 fibres.
The maximum practical LC fusion-splice capacity is 72 fibres. Although two 12-port LC Quad faceplates provide 96 physical fibre positions, the enclosure can hold only three 24-fibre splice cassettes.
Yes. Specifically, two 12-port LC Quad faceplates can physically present 96 fibres. However, the enclosure cannot manage 96 conventional fusion splices within its available internal height.
The enclosure can accommodate a maximum of three splice cassettes. Because each cassette manages 24 fusion splices, the maximum internal capacity equals 72 fibres.
No. In fact, two LC Quad faceplates provide 96 physical fibre positions. Instead, 72 fibres represents the maximum internal fusion-splice capacity.
The enclosure can accommodate up to three stacked splice cassettes. Therefore, three 24-fibre cassettes provide a maximum capacity of 72 fusion splices.
Yes. Anderson Corporation installs the selected adaptors into the corresponding faceplates before delivery.
Yes. Furthermore, Anderson Corporation includes colour-coded pigtails that match the selected fibre category, connector style and polish.
Customers should confirm splice protectors and other installation consumables when ordering. After all, each project may require a different consumable package.
No. Instead, the RapidConnect 148S-FL uses a sliding tray. Consequently, technicians can draw the tray forward for installation and maintenance access.
The enclosure uses a 19-inch rackmount format and occupies 1RU. Nevertheless, customers should confirm cabinet dimensions, mounting hardware and rear clearance before installation.
The enclosure measures 430 mm wide, 300 mm deep and 44 mm high.
The incoming fibre optic cable enters through the rear. Therefore, the cabinet must provide adequate rear clearance, cable support and routing space.
Yes. Anderson Corporation offers OS2 singlemode configurations with SC or LC connectivity. Additionally, customers can choose UPC or APC polish.
Yes. Anderson Corporation offers OM4 multimode configurations with SC or LC connectivity.
No. UPC and APC connectors use different end-face geometries. Consequently, technicians should never directly mate them.
Choose the connector format that matches the active equipment, patch leads and project standard. In summary, SC configurations support up to 48 fibres, while LC configurations support up to 72 fusion-spliced fibres.
Choose the fully loaded version when you want one coordinated combination of faceplates, adaptors, pigtails and splice cassettes. Therefore, it suits defined installations and repeatable project schedules.
Choose the unloaded enclosure when you want to select and install the connectivity components separately. As a result, the unloaded version provides greater component-level flexibility.
Anderson Corporation can discuss project-specific configurations. However, customers should confirm the connector arrangement, fibre count, adaptor format, pigtail quantity and cassette requirements before ordering.
Yes. Anderson Corporation installs the selected faceplates, adaptors and pigtails before delivery. Therefore, the installer can prepare the incoming cable and complete the fusion splices in the field.
Yes, an eligible enclosure can form part of a qualifying RapidConnect system. Nevertheless, the complete installation must satisfy the applicable product, installation, testing and documentation requirements.
The Fully Loaded 1RU Rackmount Fibre Enclosure Knowledge Centre provides focused guidance on configuration, connector capacity, splice management, installation and maintenance. As the Knowledge Centre expands, each section will help customers specify and use the RapidConnect 148S-FL correctly.
First, this section explains what “fully loaded” means and what Anderson Corporation installs before delivery. It also distinguishes the 148S-FL from an unloaded enclosure that requires separate faceplates, adaptors and pigtails.
Articles coming soon.
Next, this section examines how the faceplates, adaptors and colour-coded pigtails form a coordinated termination assembly. In particular, it explains how connector format, fibre type, polish and fibre count determine the required configuration.
Articles coming soon.
In addition, this section covers SC Duplex faceplate arrangements for OS2 and OM4 systems. It also explains how two 12-port SC Duplex faceplates can accommodate up to 48 fibres.
Articles coming soon.
Furthermore, this section examines LC Duplex and LC Quad configurations for OS2 and OM4 systems. As a result, customers can understand how the selected adaptor arrangement affects front-panel density and fibre presentation.
Articles coming soon.
Although two 12-port LC Quad faceplates can present 96 fibres, internal splice management limits the enclosure to 72 fusion-spliced fibres. Therefore, this section explains the difference between physical connector capacity and practical splice capacity.
Articles coming soon.
Once installers prepare the incoming cable, this section explains how they can manage pigtails, fusion splices and stored fibre inside the enclosure. Moreover, it covers the use of up to three stacked 24-fibre splice cassettes.
Articles coming soon.
After splicing, this section examines sliding-tray movement, rear cable entry and internal fibre routing. Consequently, technicians can maintain access without pulling, trapping or tightly bending the installed fibres.
Articles coming soon.
Meanwhile, this section identifies the details customers should confirm before ordering a 148S-FL enclosure. Specifically, it covers fibre count, SC or LC connectivity, OS2 or OM4 fibre, UPC or APC polish and splice cassette requirements.
Articles coming soon.
Following delivery, this section guides installers through enclosure inspection, rack mounting, cable preparation and fusion splicing. In addition, it covers connector cleaning, fibre identification and optical testing before project handover.
Articles coming soon.
Finally, this section compares the fully loaded 148S-FL with the unloaded 148S sliding enclosure. Therefore, customers can decide whether a factory-prepared configuration or a separately assembled enclosure better suits their project.
Articles coming soon.
Furthermore, visit the Anderson Fibre Optic Products YouTube channel for product demonstrations and additional fibre optic information.
The RapidConnect Fully Loaded 1RU Rackmount Fibre Enclosure 148S-FL provides a coordinated 1RU fibre termination solution with faceplates, adaptors and pigtails installed before delivery. As a result, contractors receive a clearly defined enclosure configuration ready for cable entry, fusion splicing, cleaning and testing.
Available configurations include:
Although two LC Quad faceplates can present 96 fibres, the internal cassettes can manage no more than 72 fusion splices. Therefore, Anderson Corporation will match the faceplates, adaptors, pigtails and splice cassette arrangement to the required number of terminated fibres.
Finally, request a quote from Anderson Corporation to confirm the correct configuration for your project.
