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- sales@andcorp.com.au
RapidConnect Uniboot Fibre Optic Patch Cables carry two optical fibres inside one compact 2 mm round LSZH jacket. Paired LC Uniboot connectors with 62 mm push/pull tabs improve access in high-density racks and cabinets. Available in OS2 singlemode and OM4 multimode, every cable is factory terminated and individually tested.
RapidConnect® Uniboot Fibre Optic Patch Cables carry two optical fibres inside one compact 2 mm round outer jacket. At each end, both fibres terminate through a paired LC Uniboot connector assembly. Consequently, one fibre can carry the transmitted optical signal while the other carries the received optical signal.
This single-jacket construction reduces cable volume within racks, cabinets and cable-management systems. In addition, 62 mm push/pull tabs make the connectors easier to operate when adjacent ports restrict direct finger access.
RapidConnect Uniboot Fibre Optic Patch Cables are available for OS2 singlemode and OM4 multimode networks. Furthermore, Anderson Corporation can manufacture each cable in the required length and configuration. Every cable undergoes factory termination, inspection and individual optical testing before supply.
The standard Uniboot cable featured on this page uses 62 mm push/pull tabs. However, some installations also require technicians to exchange the transmit and receive positions at the connector. For those applications, refer to our Polarity Reversible LC Uniboot Fibre Optic Patch Cable.
A Uniboot fibre optic patch cable is an optical cable that carries two fibres inside one outer jacket. At each end, the two fibres terminate through a paired LC Uniboot connector assembly.
One fibre normally carries the transmitted optical signal. Meanwhile, the second fibre carries the received optical signal. Therefore, the cable provides the two separate optical pathways required by compatible network equipment.
The term “Uniboot” refers to the way the two fibres share one cable jacket and one coordinated connector boot arrangement. Instead of using the two separately jacketed cable legs found on a Duplex Patch Cable, both fibres remain together within one compact round cable.
Although the fibres share one jacket, they remain optically independent. Consequently, the Uniboot construction does not combine the transmitted and received signals. Likewise, it does not convert the connection into a bidirectional single-fibre system.
At each end, the paired LC connectors align with the corresponding equipment ports. Therefore, the cable can connect compatible switches, transceivers, patch panels, storage equipment and telecommunications devices while occupying less pathway space than a Duplex Patch Cable.
The RapidConnect Uniboot Fibre Optic Patch Cable uses a nominal 2 mm round outer jacket. As a result, it provides a compact solution for installations where cable volume and connector access require careful management.
The defining feature of a Uniboot fibre optic patch cable is its single-jacket, two-fibre construction.
A Duplex Patch Cable commonly uses a separate jacketed cable leg for each fibre. Both cable legs then follow the same route between the connectors. Although this arrangement provides the required optical pathways, it creates more cable volume.
By contrast, a Uniboot cable places both fibres inside one 2 mm round outer jacket. Therefore, only one compact cable needs to pass through the rack or cable-management pathway.
This construction can provide several practical benefits:
Because both fibres remain within the same outer jacket, technicians can route and manage them as one cable assembly. However, each fibre continues to provide a separate optical pathway. Therefore, the transmit and receive relationship must remain correct throughout the completed connection.
The single-jacket construction improves physical management, but it does not remove the need for appropriate handling. Installers must still protect the cable from sharp bends, crushing, twisting and excessive pulling forces.
Cable congestion can become a serious issue as the number of optical connections increases. In particular, Duplex Patch Cables can overlap, twist or spread across adjacent equipment ports.
Large cable bundles can also consume cable-management capacity. Furthermore, they may obstruct equipment labels, restrict access to connectors and complicate routine maintenance.
The RapidConnect Uniboot cable uses one compact 2 mm round jacket containing two fibres. Consequently, it reduces the physical cable volume associated with each transmit and receive connection.
This compact construction can help improve:
The round profile also follows controlled pathways easily. Therefore, technicians can route the cable through horizontal and vertical managers without handling the separate cable legs associated with a Duplex Patch Cable.
However, the smaller diameter does not make the cable immune to damage. The internal fibres remain made from glass. Consequently, installers must maintain smooth bends and protect the cable from mechanical stress.
Correct length selection also remains important. An excessively long cable can create unwanted coils and congestion. Conversely, a cable that is too short may place continuous tension on the connectors.
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A Uniboot Fibre Optic Patch Cable and a Duplex Patch Cable both contain two optical fibres. However, they use different cable and connector constructions.
A Duplex Patch Cable generally has two individually jacketed cable legs. Each leg contains one optical fibre. In addition, a removable clip usually holds the two connectors together at each end.
By contrast, a Uniboot Fibre Optic Patch Cable places both fibres inside one compact outer jacket. Both fibres then terminate through a paired LC Uniboot connector assembly.
| Feature | Uniboot Fibre Optic Patch Cable | Duplex Patch Cable |
|---|---|---|
| Number of optical fibres | Two | Two |
| Main construction | Both fibres inside one outer jacket | One fibre inside each cable leg |
| Cable profile | One nominal 2 mm round cable | Two separately jacketed cable legs |
| Equipment interface | Paired LC Uniboot connectors | Two individual connectors, usually clipped together |
| Cable volume | Lower | Higher |
| High-density cable management | Particularly suitable | Depends on available pathway space |
| Connector access | 62 mm push/pull tabs | Depends on the connector design |
| Transmit and receive pathways | Yes | Yes |
| Polarity requirement | Must be confirmed | Must be confirmed |
Uniboot Fibre Optic Patch Cables become particularly useful as equipment density increases. Since both fibres share one jacket, the cable occupies less space within racks, cabinets and cable-management pathways.
Moreover, the paired LC Uniboot connector assembly keeps both optical fibres together. The 62 mm push/pull tabs also make the connectors easier to operate when neighbouring ports restrict direct finger access.
Therefore, a Uniboot Fibre Optic Patch Cable is particularly suitable when:
Duplex Patch Cables remain suitable for many optical networks. For example, they can perform effectively where port density remains low and technicians have easy access to the individual connectors.
A Duplex Patch Cable may also provide a better choice when the equipment uses connector types other than LC. Furthermore, the separately jacketed cable legs may suit an installation that requires the connectors to separate or follow different paths near the equipment.
Therefore, a Duplex Patch Cable may be more appropriate when:
Customers should base their selection on equipment compatibility, cabinet density, pathway capacity and maintenance requirements.
Choose a Uniboot Fibre Optic Patch Cable when paired LC connectivity, lower cable volume and push/pull access provide clear advantages. Alternatively, choose a Duplex Patch Cable when separate cable legs or other connector combinations better suit the network.
For broader guidance covering Duplex Patch Cables, connector types and fibre selection, visit the Fibre Optic Patch Leads Authority Hub.
At each end of the Uniboot cable, the two fibres terminate through a paired LC Uniboot connector assembly. This arrangement presents both optical pathways to the equipment through one coordinated connector system.
LC connectors have become common across modern optical networks because of their compact size. Consequently, equipment manufacturers can provide a large number of LC ports within a relatively small area.
Common LC-connected equipment includes:
Uniboot construction complements the compact LC interface. While LC connectors support high port density, the single 2 mm jacket reduces cable volume behind those ports.
The coordinated connector assembly also keeps both optical pathways together. Therefore, technicians can identify and handle both fibres as one cable.
Nevertheless, the LC connector shape does not confirm fibre compatibility. LC connectors can terminate both singlemode and multimode fibre. Therefore, customers must confirm the fibre type, connector finish and equipment requirements before ordering.
RapidConnect Uniboot Fibre Optic Patch Cables include 62 mm push/pull tabs. These extended tabs allow technicians to operate the LC connector latches without reaching directly between closely spaced connectors.
In connectors.
In a lightly populated panel, a technician may have enough room to reach each connector. However, access becomes more difficult when neighbouring ports contain other cables.
Dense switches, distribution panels and optical equipment can make this problem more pronounced. In addition, large cable bundles may restrict the space available around the connector latch.
The extended tab creates a more accessible operating point behind the paired LC connectors. As a result, technicians can connect or release the assembly while keeping their hands further away from the crowded equipment face.
The 62 mm push/pull tabs can provide particular value in:
The tabs support controlled connection and removal. However, technicians should operate them in line with the connector bodies. Twisting or pulling a tab sideways may place unnecessary force on the connector mechanism.
Most importantly, technicians should use each tab only to operate the connector. The tabs should not act as pulling eyes for routing the cable through managers or pathways.
Likewise, technicians should never disconnect the assembly by pulling on the outer jacket. Pulling the cable can transfer force into the connector boots, internal fibres or termination points.
The standard 62 mm push/pull model and the polarity-reversible 35 mm model belong to the same Uniboot product family. However, they provide different connector capabilities.
Both products carry two optical fibres inside one 2 mm round outer jacket. Likewise, both use paired LC Uniboot connector assemblies.
The standard model focuses on reduced cable volume and improved connector access. Its 62 mm tabs help technicians connect and remove the cable in densely populated equipment.
By contrast, the polarity-reversible model includes a mechanism that allows technicians to exchange the transmit and receive positions at the connector. Therefore, it provides additional flexibility when the required end-to-end orientation remains uncertain or changes during installation.
| Feature | Standard Uniboot Cable | Polarity-Reversible Uniboot Cable |
|---|---|---|
| Optical fibres | Two | Two |
| Outer construction | One 2 mm round jacket | One 2 mm round jacket |
| Equipment interface | Paired LC Uniboot connectors | Paired LC Uniboot connectors |
| Tab length | 62 mm | 35 mm |
| Field polarity reversal | No | Yes |
| Primary purpose | Reduced cable volume and easier connector access | Reduced volume, easier access and field polarity changes |
Not every Uniboot connector provides field polarity reversal. The Uniboot name describes the shared-jacket and coordinated connector construction. By contrast, polarity reversal represents an additional connector function.
Choose the standard 62 mm model when the required polarity is known and the primary objectives involve cable management and connector access. Alternatively, select the polarity-reversible model when technicians may need to change the fibre positions in the field.
A two-fibre optical connection normally uses one fibre to carry the transmitted signal and the other to carry the received signal.
The transmitter at one end must connect to the receiver at the other end. Similarly, the receiver at the first end must connect to the transmitter at the second end.
This relationship is commonly described as Tx-to-Rx polarity. If one transmitter connects to another transmitter, the equipment cannot establish the intended connection. The same problem occurs when two receiving ports connect together.
The two fibres inside the Uniboot cable must therefore reach the correct equipment positions at each end. However, adaptor orientation, existing infrastructure and equipment layout can all affect the completed end-to-end relationship.
Before ordering, confirm:
The standard Uniboot cable arrives in the specified configuration. Nevertheless, installers should verify the completed connection before commissioning the network.
A visual fault locator or suitable test equipment may assist with fibre identification. However, technicians must follow safe working procedures and should never look directly into an optical connector.
If the correct polarity remains uncertain, the field-reversible Uniboot model may provide a more flexible option. Even so, technicians should document any field changes for future maintenance.
OS2 singlemode fibre commonly supports telecommunications systems, campus backbones, enterprise networks and longer-distance optical links.
RapidConnect OS2 Uniboot Fibre Optic Patch Cables carry two singlemode fibres inside one yellow 2 mm round outer jacket. At each end, the two fibres terminate through a paired LC Uniboot connector assembly.
Typical OS2 applications include:
The fibre type must match the connected equipment and fixed infrastructure. Therefore, an OS2 Uniboot cable should connect systems designed for singlemode transmission.
Customers should not substitute an OS2 cable for an OM4 cable merely because both products use LC connectors. Although the connector may fit physically, the systems use different fibre types and optical transceivers.
RapidConnect uses G.657.A2 bend-insensitive singlemode fibre across its applicable patch-cable range. Consequently, the OS2 Uniboot cable provides improved resistance to bend-related attenuation under controlled conditions.
However, bend-insensitive fibre does not make the cable immune to damage. Installers must still protect it from sharp bends, crushing, twisting and excessive pulling.
G.657.A2 singlemode fibre provides improved bending performance for compact routing environments. Therefore, it offers practical benefits within racks and cabinets where cables must follow carefully managed curves.
The fibre can help reduce the risk of bend-related attenuation when compared with conventional singlemode fibre under similar conditions. However, performance still depends on the complete cable assembly and the quality of the installation.
Installers should continue to avoid:
The 2 mm construction allows compact routing, while G.657.A2 fibre provides additional bend resilience. Nevertheless, technicians should always create the broadest practical bend and support the cable correctly.
OM4 multimode fibre supports high-speed optical connections over distances determined by the network application and transceiver type. It frequently appears in data centres, equipment rooms, enterprise networks and storage environments.
RapidConnect OM4 Uniboot Fibre Optic Patch Cables carry two multimode fibres inside one Erika Violet 2 mm round outer jacket.
Erika Violet refers specifically to the RapidConnect product identification system. Therefore, it provides a clear and consistent colour for identifying RapidConnect OM4 patch cables.
Typical OM4 applications include:
The OM4 cable must match the installed multimode infrastructure and active equipment. Furthermore, the total link length and optical-loss budget must satisfy the requirements of the selected network application.
Colour helps technicians identify the fibre type. Nevertheless, cable labels and network records should confirm the actual specification. Custom colours and inconsistent legacy installations can make colour-only identification unreliable.
Select the fibre type according to the active equipment, optical transceivers and installed infrastructure.
Choose OS2 when:
Choose OM4 when:
Do not select the fibre type solely from the LC connector shape. Both OS2 and OM4 cables can use LC connectors. Consequently, it remains physically possible to connect an unsuitable fibre type.
Instead, confirm:
Correct product selection ensures that the Uniboot cable becomes a compatible part of the complete optical system.
The LC connectors must use an end-face finish that matches the equipment and adaptors.
UPC connectors commonly appear in Ethernet, data centre and enterprise network applications. Meanwhile, APC connectors may appear in optical systems that require additional control of reflected light.
UPC and APC connectors use different end-face geometries:
These connector finishes should not connect directly to one another. Their geometries differ, while incorrect mating can cause excessive insertion loss, poor return loss or physical damage.
Connector colours commonly assist identification:
However, colour should support verification rather than replace it. Customers should confirm the equipment receptacle, adaptor type and system specification before ordering.
Many paired LC data-network ports use UPC connectors. Nevertheless, the project requirement should always determine the final configuration.
RapidConnect Uniboot Fibre Optic Patch Cables use a Low Smoke Zero Halogen outer jacket as standard.
LSZH materials help limit smoke and halogenated gas emissions when exposed to fire. Therefore, they can support material requirements in occupied buildings, communications rooms, equipment facilities and data centres.
However, LSZH does not mean that a cable cannot burn. Likewise, the term does not establish compliance with every building, fire or project requirement by itself.
A project may specify:
Therefore, the installer or project designer should confirm every applicable requirement before installation.
The Uniboot patch cable principally suits protected indoor equipment connections. It does not replace a fixed outdoor, underground or direct-burial cable.
Where a route passes between buildings or through an exposed pathway, use a suitable fixed fibre optic cable for that section. Then terminate it within an appropriate enclosure and use Uniboot patch cables for the final equipment connections.
Connector quality directly affects optical performance. Therefore, RapidConnect Uniboot Fibre Optic Patch Cables undergo factory termination within a controlled production environment.
Factory production allows control over:
Controlled factory processes support consistent connector performance. Furthermore, they allow each completed cable to undergo optical testing before supply.
Factory termination also removes the need to fit the Uniboot connectors on site. As a result, technicians can install, inspect, clean and connect the completed assembly.
Every RapidConnect Uniboot Fibre Optic Patch Cable undergoes individual optical testing before supply.
Individual testing relates directly to the completed cable assembly. Therefore, customers receive a product that has undergone performance verification rather than relying only on a general manufacturing specification.
The insertion-loss requirement is up to 0.3 dB per connector, subject to the ordered configuration and applicable testing method.
Singlemode UPC configurations provide return-loss performance of at least 55 dB. However, return-loss requirements vary according to fibre type and connector finish. Anderson Corporation will therefore confirm the applicable performance requirement for the selected configuration.
| Product Characteristic | RapidConnect Uniboot Cable |
|---|---|
| Cable construction | Two fibres inside one outer jacket |
| Outer jacket diameter | Nominal 2 mm |
| Jacket material | LSZH |
| Equipment interface | Paired LC Uniboot connectors |
| Tab length | 62 mm |
| Fibre options | OS2 singlemode or OM4 multimode |
| Insertion loss | Up to 0.3 dB per connector |
| Singlemode UPC return loss | At least 55 dB |
| Termination | Factory terminated |
| Testing | Individual optical testing |
Customers with a specific link-loss budget should provide their maximum acceptable loss when requesting a quotation. Anderson Corporation can then confirm the most suitable configuration.
Insertion loss measures the reduction in optical power as light passes through a connection.
Every connector, adaptor, splice and length of fibre contributes to the total optical loss. Therefore, a Uniboot patch cable forms one part of the complete link-loss budget.
Excessive insertion loss can reduce the available system margin. In some cases, the connection may continue to operate but become more vulnerable to contamination, additional connections or component ageing. In other cases, excessive loss may prevent the equipment from establishing a reliable link.
A complete optical-loss budget can include:
A low-loss Uniboot patch cable supports the overall optical budget. However, it cannot compensate for contaminated adaptors, damaged fixed cabling or an unsuitable network design.
Therefore, commissioning should evaluate the complete optical path. Individual cable test results verify the Uniboot assembly, while link testing confirms the performance of the installed network.
Return loss relates to the amount of optical power reflected towards the source.
Connector geometry, end-face quality and cleanliness all influence reflected power. Therefore, factory polishing and clean connector interfaces remain important.
Singlemode systems may become particularly sensitive to reflections. Accordingly, customers may specify minimum return-loss performance for certain applications.
UPC and APC connector finishes manage reflections differently. However, APC is not automatically the correct choice for every system. Many network transceivers use paired LC/UPC ports. Therefore, the connector finish must match the equipment.
Never connect an APC connector directly to a UPC interface. Even if the connector bodies appear compatible, their end-face geometries remain unsuitable for direct mating.
Contamination represents one of the most common causes of fibre optic connection problems.
A small particle on an LC end face can obstruct part of the optical signal or prevent correct physical contact. Furthermore, mating a contaminated connector may transfer debris into the adaptor or damage both end faces.
Technicians should follow an inspect-clean-inspect process:
Protective caps help reduce contamination during storage and transport. However, a protective cap does not guarantee that the connector is clean. Caps can contain dust, release residue or collect contamination during handling.
Use cleaning tools designed for LC connectors. In addition, keep all cleaning materials protected from dust and moisture.
Never touch the ferrule with a finger. Likewise, do not wipe the connector on clothing or use unsuitable household cleaning products.
Inspection should take place before the first connection and whenever a technician disconnects and reconnects the cable.
Uniboot Fibre Optic Patch Cables require controlled handling because their internal fibres consist of glass.
During installation:
The 62 mm push/pull tabs should remain accessible after installation. Therefore, technicians should avoid burying them behind large cable bundles.
Each tab should also extend naturally from the connector. Twisting it against the equipment face can place unnecessary stress on the connector mechanism.
Where work falls within Australia’s regulated customer-cabling framework, use an appropriately registered cabler with the necessary competencies. The Australian Communications and Media Authority provides guidance about cabling registration and optical-fibre competency requirements.
The single-jacket construction reduces cable volume. However, a well-organised rack still requires planned pathways and accurate documentation.
Begin by separating patching areas according to their function where practical. For example, keep switch connections separate from backbone, storage and management links.
Next, choose cable lengths that reach their destinations without tension. At the same time, avoid excessive length that creates large storage coils.
Use horizontal and vertical cable managers to support the cable route. Furthermore, distribute cables across the available capacity rather than forcing the entire bundle through one narrow space.
Where a cable changes direction, create a smooth curve. Do not pull the cable tightly around the edge of a manager.
The 62 mm tabs should remain visible and accessible. Therefore, dress the cables so that neighbouring bundles do not obstruct the tabs.
Finally, maintain accurate port records. The compact Uniboot construction improves physical organisation, while documentation improves operational control.
Correct cable length supports performance, appearance and maintainability.
A cable that is too short may place continuous tension on the connectors. Moreover, equipment movement or future maintenance may pull it beyond its intended position.
A cable that is too long can create unnecessary loops. Consequently, the cabinet may become congested despite the compact single-jacket construction.
Before ordering:
Anderson Corporation can manufacture RapidConnect Uniboot cables in project-specific lengths. Therefore, customers do not need to accept an unsuitable standard length when a custom assembly provides a better result.
Data centres often contain densely arranged optical ports and frequent network changes. Therefore, reduced cable volume and accessible connector controls can provide significant operational value.
Uniboot cables can simplify routing between switches, patch panels, servers and storage systems. In addition, the 62 mm tabs improve access around closely spaced LC ports.
Enterprise core rooms may support numerous backbone and equipment connections. Consequently, cable congestion can increase as the network expands.
The single-jacket construction helps preserve cable-management capacity while providing the two optical pathways required by compatible equipment.
Telecommunications equipment commonly uses high-density optical interfaces. Therefore, the combination of a 2 mm round cable and extended tabs supports controlled patching within distribution and transmission equipment.
Storage networks may require numerous optical connections between switches, servers and storage equipment. Compact cables can simplify routing, particularly where equipment occupies adjacent rack units.
LC patch panels can place many connections within a limited area. As a result, technicians may struggle to reach individual connector latches. The extended tabs make the paired connectors easier to operate.
Laboratories and network operations centres may change optical connections regularly. Therefore, individually tested cables and accessible connector controls can support repeatable patching when technicians also maintain connector cleanliness.
A standard Uniboot Fibre Optic Patch Cable suits many two-fibre LC applications. Nevertheless, a Duplex Patch Cable may provide a better solution in some circumstances.
Consider a Duplex Patch Cable when:
Duplex Patch Cables can support LC, SC, ST, FC and other connector combinations. Therefore, they generally provide a broader choice of connector formats.
By contrast, Uniboot construction primarily suits paired LC connections. Its main advantages come from the compact single jacket and coordinated LC connector arrangement.
The correct choice depends on the equipment, pathway and operational requirements. Consequently, neither construction should act as an automatic replacement for the other.
Other applications may require a specialist cable rather than either a standard Uniboot cable or a Duplex Patch Cable.
A different product may provide a better solution when:
For example, choose the polarity-reversible Uniboot model when technicians need to exchange the transmit and receive positions in the field.
Alternatively, use a suitable fixed fibre optic cable for outdoor or underground routes. The fixed cable can terminate inside an enclosure, while the Uniboot cable completes the protected equipment connection.
Clear identification assists installation, maintenance and fault investigation.
Depending on the selected configuration, cable identification can include:
RapidConnect patch cables can include a QR code or product label that supports traceability. Consequently, technicians can relate the installed cable to its manufacturing and test information.
Labels should remain readable after installation. Therefore, technicians should position them where they can inspect the information without pulling on the connector.
The site should also maintain its own network records. At minimum, record the source port, destination port, cable identifier, fibre type and transmit and receive orientation.
Clear records become particularly valuable in high-density environments. Although the single-jacket construction reduces physical congestion, technicians must still identify each cable quickly and accurately.
Network requirements can vary significantly. Therefore, Anderson Corporation offers custom manufacturing for RapidConnect Uniboot Fibre Optic Patch Cables.
Available options can include:
Customers should confirm custom requirements before production. In particular, provide clear schedules or drawings for cables with special connector arrangements, unique labels or non-standard polarity requirements.
For larger projects, an approved sample or manufacturing drawing can reduce ordering risk. Furthermore, standardising the approved configuration helps maintain consistency across future orders.
Custom lengths can also improve cable management. Instead of storing excessive cable inside the rack, customers can select a length that suits the actual pathway.
The ordering code identifies the Uniboot product family, fibre type, two-fibre construction, connector and cable length.
A typical example is:
11M4-02L1
Where:
A singlemode cable uses the applicable OS2 or singlemode identifier shown on the quotation.
When requesting a quotation, provide:
Anderson Corporation will then confirm the complete RapidConnect product code and cable specification.
A shared outer jacket does not automatically provide a reversible connector. Therefore, check whether the product specifically includes field polarity reversal.
Both products contain two optical fibres. However, the industry commonly uses Duplex Patch Cable to describe the construction with two separately jacketed cable legs.
A Uniboot Fibre Optic Patch Cable instead carries both fibres inside one outer jacket. Therefore, the two product names should remain distinct.
Both OS2 and OM4 fibres can terminate with LC connectors. Consequently, connector shape does not identify the fibre type.
UPC and APC end faces should not connect directly. Therefore, confirm the equipment and adaptor interface before ordering.
The cable must follow managers and equipment pathways. Consequently, a straight-line measurement may produce an unsuitable length.
Each fibre must reach the correct equipment port. Therefore, confirm the complete end-to-end relationship before commissioning.
LSZH describes a jacket-material characteristic. However, a project may impose additional fire, pathway and installation requirements.
Use the push/pull tab to operate the connector. Pulling the jacket may transfer stress into the cable termination.
A protective cap does not guarantee a clean end face. Therefore, inspect every connector before mating.
Unnecessary cable length can create storage loops and congestion. Therefore, measure the complete pathway before ordering.
A Uniboot Fibre Optic Patch Cable contains two optical fibres inside one outer jacket.
One fibre normally carries the transmitted optical signal. Meanwhile, the second fibre carries the received optical signal.
No. The fibres remain optically independent throughout the cable. They simply share one outer jacket.
The RapidConnect Uniboot Fibre Optic Patch Cable uses a nominal 2 mm round outer jacket.
Compatible optical equipment uses separate transmit and receive pathways. Therefore, the cable provides one fibre for each optical pathway.
Each end uses a paired LC Uniboot connector assembly.
No. A Uniboot Fibre Optic Patch Cable carries two fibres inside one outer jacket. By contrast, a Duplex Patch Cable generally uses two separately jacketed cable legs.
Both constructions can provide transmit and receive pathways. However, their cable structures and connector arrangements differ.
Uniboot construction reduces cable volume and can improve connector access in high-density LC environments. Therefore, it particularly suits densely populated racks, switches and patch panels.
A Duplex Patch Cable may suit installations that require other connector types, separately jacketed cable legs or greater separation between the connectors.
The standard product uses 62 mm push/pull tabs and arrives in the specified polarity. Choose the dedicated Polarity Reversible LC Uniboot Fibre Optic Patch Cable when technicians need to change the fibre positions in the field.
The extended tab helps technicians connect and remove the paired LC connectors when neighbouring ports restrict direct finger access.
No. Use the tab only to operate the connector. It should not serve as a pulling eye.
Yes. RapidConnect can supply an OS2 singlemode configuration for compatible equipment and infrastructure.
Yes. An OM4 multimode configuration is available for compatible multimode systems.
Yellow is the standard RapidConnect jacket colour for OS2 singlemode patch cables.
RapidConnect uses Erika Violet, specifically RAL 4003, to identify OM4 cables.
RapidConnect uses G.657.A2 bend-insensitive singlemode fibre where applicable. However, installers must still protect the cable from sharp bends and mechanical damage.
Yes. Every RapidConnect Uniboot Fibre Optic Patch Cable undergoes individual optical testing before supply.
The insertion-loss requirement is up to 0.3 dB per connector, subject to the ordered configuration and test method.
Yes. Anderson Corporation can manufacture custom lengths to suit the actual equipment pathway.
No. APC and UPC connectors use different end-face geometries and should not connect directly.
The Uniboot cable principally suits protected indoor equipment connections. Use a suitably rated fixed cable for outdoor, underground or exposed pathways.
No. The compact construction simplifies routing, but the cable still has mechanical limitations. Therefore, maintain smooth bends and avoid crushing.
Inspect every connector before mating, including a new connector. If contamination appears, clean and reinspect it.
The cable does not increase equipment speed by itself. Instead, it provides the optical pathways required by compatible transceivers and infrastructure.
It can connect compatible transceivers with paired LC ports, provided the fibre type, wavelength, connector finish and link design match the equipment requirements.
No. Duplex Patch Cables, polarity-reversible Uniboot cables, single-fibre cables or other specialist products may better suit some applications.
A dependable fibre optic patch cable must suit the equipment, maintain optical performance and support controlled installation and maintenance.
RapidConnect Uniboot Fibre Optic Patch Cables combine:
Most importantly, the product solves a practical cable-management problem. It reduces the amount of cable within the pathway while retaining the two separate optical fibres required for transmit and receive functions.
Furthermore, the 62 mm tabs improve access to closely spaced LC ports. Therefore, the product can simplify installation and maintenance within high-density optical environments.
The Uniboot Fibre Optic Patch Cable Knowledge Centre will provide focused guidance across product selection, fibre polarity, connector access, testing, installation and maintenance. As the Knowledge Centre expands, each section will help customers make informed decisions throughout the product lifecycle.
First, this section will explain how two fibres fit inside one outer jacket. In addition, it will compare Uniboot Fibre Optic Patch Cables with Duplex Patch Cables.
Articles coming soon.
Next, this section will compare single-jacket Uniboot construction with the two separately jacketed legs used by Duplex Patch Cables. Consequently, customers can choose the construction that best suits their equipment and cable-management requirements.
Articles coming soon.
This section will examine how each fibre connects the transmitting equipment at one end to the receiving equipment at the other.
Articles coming soon.
This section will compare the standard 62 mm push/pull model with the polarity-reversible 35 mm model. Therefore, customers can select the appropriate connector mechanism.
Articles coming soon.
This section will cover cable routing, equipment access and rack organisation. Furthermore, it will explain how one shared outer jacket can reduce congestion.
Articles coming soon.
This section will compare OS2 singlemode and OM4 multimode options. Consequently, customers can match the patch cable to the installed infrastructure and optical equipment.
Articles coming soon.
This section will explain inspect-clean-inspect practices for LC connectors. In addition, it will cover protective caps, cleaning tools and contamination prevention.
Articles coming soon.
This section will examine insertion loss, return loss and individual test results. Moreover, it will explain how patch-cable performance contributes to the complete link-loss budget.
Articles coming soon.
Finally, this section will provide practical guidance for routing, connecting, labelling and maintaining Uniboot cables throughout their service life.
Articles coming soon.
RapidConnect Uniboot Fibre Optic Patch Cables carry two optical fibres inside one compact 2 mm round outer jacket. Therefore, they provide a space-saving alternative to Duplex Patch Cables in high-density LC environments.
The 62 mm push/pull tabs improve connector access, while factory termination and individual optical testing support dependable performance. Furthermore, OS2 singlemode and OM4 multimode options allow the cable to suit a wide range of compatible optical networks.
When requesting a quotation, provide the fibre type, cable length, connector finish, polarity, quantity and any project-specific labelling requirements. Anderson Corporation can then confirm the correct RapidConnect configuration and ordering code.
For broader information about Duplex Patch Cables and other connector options, visit our Fibre Optic Patch Leads Authority Hub.
Alternatively, if your installation requires technicians to exchange the transmit and receive positions at the connector, review the Polarity Reversible LC Uniboot Fibre Optic Patch Cable.
Contact Anderson Corporation for a quotation or technical assistance with your next Uniboot Fibre Optic Patch Cables requirement.
Be sure to check out the rest of the Anderson Product Range for another product that may be suitable for you!
Check out the official Anderson Corporation YouTube Channel for more useful Fibre Optic Information!
