- (61) 3 9761 7600
- sales@andcorp.com.au
The RapidConnect 3 Hole Fibre Optic Cable Stripper combines three fibre preparation functions in one compact tool. It removes compatible 2–3 mm jackets, 900-micron buffers and 250-micron coatings to expose 125-micron bare fibre for splicing or termination.
The 3 Hole Fibre Optic Cable Stripper gives fibre technicians three dedicated stripping functions in one compact hand tool. Each precision stripping hole removes a different layer from a compatible fibre cable or tight-buffered fibre. Therefore, technicians can progress from a 2–3 mm outer jacket to 900-micron buffered fibre, then to 250-micron coated fibre and finally to 125-micron bare glass.
Because each opening performs a specific task, the RapidConnect® stripper supports controlled and repeatable fibre preparation. The three-hole configuration also reduces the need to carry separate stripping tools for these common coating and buffer sizes.
The ergonomic handles provide a comfortable grip during repetitive preparation work. Meanwhile, the compact format makes the tool easy to store in a termination kit, tool case or technician’s pouch. As a result, it suits installation, maintenance, repair and laboratory environments where technicians regularly prepare individual optical fibres.
Most importantly, the tool supports the careful removal of fibre layers before cleaving, fusion splicing, mechanical splicing or connector termination. However, successful preparation still depends on selecting the correct stripping hole, following the cable manufacturer’s requirements and using an appropriate stripping technique.
Fibre optic cables can contain several protective layers. Each layer performs a different mechanical or environmental function. However, technicians must remove selected layers before they can cleave, splice or terminate the optical fibre.
The 3 Hole Fibre Optic Cable Stripper provides three progressively smaller openings for this work:
Consequently, the tool supports a logical preparation sequence. A technician can begin with a jacketed fibre construction and progressively access the bare glass without changing to three separate hand strippers.
Nevertheless, not every fibre cable uses the same construction. Some cables contain loose tubes, water-blocking materials, armour, aramid yarns or larger outer sheaths. Therefore, technicians must identify the cable layers before selecting a tool.
The 3 Hole Fibre Optic Cable Stripper primarily supports individual jacketed and tight-buffered fibre preparation within its stated size range. It does not replace a rotary cable stripper, cable slitter, loose-tube cutter, ring-cutting tool or Kevlar scissors when a cable construction requires those tools.
| Product characteristic | Details |
|---|---|
| Product type | Three-hole fibre optic stripping tool |
| First stripping function | Removes a compatible 2–3 mm outer jacket |
| Result after first stage | Exposes the underlying buffered fibre |
| Second stripping function | Removes a compatible 900-micron buffer |
| Result after second stage | Exposes the 250-micron coated fibre |
| Third stripping function | Removes the 250-micron coating |
| Result after third stage | Exposes the 125-micron bare glass fibre |
| Handle design | Ergonomic hand grips |
| Format | Compact manual hand tool |
| Typical users | Fibre technicians, installers, maintenance teams and laboratory personnel |
| Typical tasks | Fibre preparation before cleaving, splicing or termination |
| Ordering code | CFS-3 |
| Brand | RapidConnect® |
Always confirm the actual cable construction, layer diameters and preparation procedure before use.
The three holes do not simply provide three alternative sizes for the same task. Instead, each opening addresses a different layer within a compatible fibre construction.
Understanding that distinction helps technicians select the correct opening. Moreover, it reduces the risk of attempting to remove a thick layer with an opening intended for a much smaller coating.
The largest opening removes the outer jacket from a compatible fibre cable with a diameter between 2 mm and 3 mm.
This jacket usually provides mechanical protection around the buffered fibre and any associated strength components. For example, technicians may encounter this type of jacket on simplex cords, pigtail constructions, field-termination cable or other compact fibre assemblies.
After removing the jacket, the technician can access the internal buffered fibre. Depending on the exact construction, aramid yarn or other strength members may also sit beneath the jacket. In that case, use suitable Kevlar scissors to trim the yarn. Do not attempt to cut aramid strength yarn with the fibre-stripping openings.
The first hole only suits compatible jacket diameters and constructions. Therefore, it should not be treated as a general-purpose outer-sheath stripper for every fibre optic cable.
Large distribution cables, loose-tube cables, armoured cables and outdoor cables often need a dedicated cable-opening tool. Additionally, their outer diameters may exceed the 2–3 mm operating range of this stripper.
The middle stripping opening removes a compatible 900-micron buffer to expose the 250-micron coated fibre.
A 900-micron tight buffer adds mechanical protection and makes an individual fibre easier to handle. Consequently, manufacturers commonly use tight-buffered fibres in indoor distribution cables, breakout constructions, pigtails and termination assemblies.
However, “900-micron buffer” and “loose buffer tube” do not mean the same thing.
A 900-micron tight buffer sits closely around the coated fibre. In contrast, a loose tube can contain one or more fibres with clearance around them. Loose tubes may also contain gel or dry water-blocking elements. Therefore, technicians should not assume that a hole designed for 900-micron tight buffer can strip every tube that measures approximately 900 microns.
After the technician removes the compatible 900-micron buffer, the 250-micron coated fibre remains. The fibre still has its protective primary coating at this stage, so the bare glass has not yet been exposed.
The smallest stripping opening removes the 250-micron fibre coating and exposes the 125-micron glass fibre.
This stage prepares the fibre for operations such as precision cleaving, fusion splicing, mechanical splicing or certain field-termination processes. Because the glass becomes exposed, the technician must handle the prepared section carefully.
The 250-micron dimension refers to the coated fibre, not the diameter of the bare glass. After stripping, the remaining glass fibre measures approximately 125 microns in diameter.
This distinction matters because incomplete coating removal can interfere with cleaning, cleaving or placement inside a splice holder. Conversely, poor technique can stress or damage the glass.
Therefore, always use a controlled stripping motion. Additionally, inspect and clean the exposed fibre according to the applicable work procedure before cleaving it.
A fibre optic link depends on accurate alignment of extremely small optical cores. Although stripping does not determine alignment by itself, it establishes the condition of the fibre entering the next preparation stage.
Poor stripping can leave coating residue on the glass. It can also create inconsistent stripped lengths, excessive fibre handling or microscopic surface damage. Consequently, those issues may contribute to cleaving problems, splice loss, weak mechanical performance or failed terminations.
A suitable stripper helps the technician remove the intended protective layer while retaining the layer beneath it. However, the tool forms only one part of the preparation process.
Technicians must also maintain clean working conditions, use the correct stripped length and inspect their tools. Furthermore, they should clean the bare fibre with an approved fibre-cleaning method before cleaving.
A controlled preparation process generally follows this sequence:
Therefore, the 3 Hole Fibre Optic Cable Stripper should form part of a complete, disciplined termination or splicing workflow.
The main advantage comes from combining three stripping stages in one hand tool.
Instead of carrying an individual jacket stripper, buffer stripper and coating stripper for compatible constructions, a technician can use the appropriate opening on the same tool. Consequently, the three-hole design can reduce tool changes during repetitive preparation work.
This arrangement also helps keep the technician’s toolkit organised. That benefit becomes valuable when working in communications rooms, equipment cabinets, elevated work areas or other locations with limited space.
Each opening corresponds to a different material diameter. Therefore, the layout gives technicians a practical progression from the largest protective layer to the smallest coating.
The sequence supports preparation from:
2–3 mm jacket → 900-micron buffer → 250-micron coating → 125-micron bare glass
This progression also makes the tool useful for training technicians in the relationship between common fibre dimensions. Nevertheless, training should always include hands-on instruction, safe fibre handling and cable-specific preparation requirements.
Optical fibre requires more control than ordinary electrical wire. The technician must remove polymer layers while protecting the glass beneath them.
The dedicated holes provide a more appropriate approach than improvised blades, knives or general-purpose electrical strippers. Additionally, the technician does not need to estimate the opening size for each supported layer.
However, precision tooling does not eliminate the need for correct technique. Operators should avoid twisting, side-loading or sharply bending the fibre during stripping.
The ergonomic handle design supports a secure and comfortable grip. As a result, the tool suits repeated preparation tasks during installation or production work.
A comfortable grip can also help the technician apply a controlled stripping motion. Nevertheless, operators should take regular breaks during high-volume work and maintain a neutral wrist position wherever possible.
The tool fits easily into a fibre termination kit or service case. Therefore, field technicians can carry it between job sites without adding several separate tools for the same three supported stages.
Its compact format also suits mobile maintenance teams, telecommunications contractors and technicians working across multiple equipment locations.
The stripper works as a manual hand tool. Consequently, technicians can use it in equipment rooms, field locations and temporary work areas without batteries or external power.
This simplicity also makes it easy to integrate into existing fibre toolkits. However, technicians still need complementary equipment such as cleaning materials, a cleaver and a fibre-shard container.
The 3 Hole Fibre Optic Cable Stripper supports fibre preparation across a range of professional environments. However, suitability depends on the actual cable construction and dimensions.
Installers can use the stripper while preparing compatible fibres for field termination or splicing.
For instance, the tool can remove a small outer jacket, tight buffer and primary coating during the staged preparation of an individual fibre. Consequently, it can support structured cabling, telecommunications and industrial communications work.
Fusion splicing requires clean, correctly prepared bare fibre.
Before cleaving, the technician must remove the 250-micron coating from the required length of fibre. The smallest opening performs this task on compatible 250-micron coated fibre.
After stripping, the technician should clean the bare glass and cleave it with a suitable precision cleaver. Furthermore, the technician must follow the fusion splicer manufacturer’s preparation and loading requirements.
The stripper does not replace the cleaver or fusion splicer. Instead, it prepares the fibre for those following stages.
Mechanical splice systems also require accurate fibre preparation.
Depending on the splice design, technicians may need to strip the coating, clean the glass and produce a controlled cleave. Therefore, the third opening can support preparation of compatible coated fibres before insertion into a mechanical splice.
Always follow the splice manufacturer’s specified strip and cleave lengths. Otherwise, the fibre may not seat correctly within the alignment mechanism.
Some field-installable fibre connectors require technicians to prepare a buffered or coated fibre before insertion.
The three-hole configuration can support this process when the cable and connector instructions call for the supported stripping diameters. However, field connector systems vary considerably. Therefore, always follow the connector manufacturer’s preparation sequence and measurement requirements.
Technicians may need to prepare pigtails during enclosure assembly, restoration or testing work.
A pigtail can include a 900-micron buffer, while some constructions may also include a 2–3 mm outer jacket. Consequently, the three-hole stripper can support multiple preparation stages on compatible products.
However, never assume that all pigtails share an identical construction. Confirm the jacket and buffer dimensions before stripping.
Telecommunications contractors regularly prepare fibres for network installation, maintenance and restoration.
Because the tool combines three stripping stages, it can provide a practical addition to service kits used at patching locations, cabinets, exchanges and splice preparation areas.
Enterprise fibre networks may include equipment rooms, backbone cabling, data centres and campus links. Therefore, technicians can use the stripper when terminating or repairing compatible tight-buffered fibres within these environments.
Industrial facilities often use fibre to connect equipment across electrically noisy or physically separated areas.
During installation or maintenance, technicians may need to prepare tight-buffered fibres for splicing or termination. The compact manual stripper can support this work when the fibre construction falls within its intended range.
Training organisations and technical laboratories can use the three-stage layout to demonstrate the layers surrounding an optical fibre.
Students can observe the transition from jacketed fibre to tight buffer, coated fibre and bare glass. Nevertheless, instructors must supervise fibre handling and provide a safe method for collecting glass shards.
The exact procedure depends on the cable and termination system. Therefore, treat the following information as general guidance rather than a replacement for formal training or manufacturer instructions.
First, confirm which layers the fibre contains.
Determine whether you are working with a 2–3 mm jacketed fibre, 900-micron tight-buffered fibre or 250-micron coated fibre. Additionally, check for aramid yarn, secondary coatings, loose tubes or other components.
Do not select a stripping hole based only on colour or appearance.
Next, identify how much material the splice, connector or termination procedure requires you to remove.
Excessive stripping exposes more fibre than necessary. Conversely, an insufficient strip length may prevent correct cleaving, placement or assembly.
Use the measurement specified by the connector, splice or equipment manufacturer.
Choose the stripping hole that matches the layer you intend to remove.
Never force an oversized cable into a smaller opening. Likewise, do not expect a larger opening to remove a smaller coating accurately.
Place the fibre into the selected stripping opening at the required length.
Keep the fibre as straight as practical. Additionally, avoid tight bends immediately beside the stripping point.
Close the handles with controlled pressure so the stripping surfaces engage the intended layer.
Avoid sudden impact or excessive squeezing. The tool should perform the stripping action through its correctly sized opening rather than through uncontrolled force.
Draw the tool along the fibre using a smooth, controlled movement.
Strip away from the retained cable section and maintain alignment with the fibre. Do not twist the tool around the glass unless the applicable instructions specifically require that action.
If the layer does not strip correctly, stop and inspect the cable, hole selection and tool condition. Do not repeatedly pull with increasing force.
Check that the intended layer has come away cleanly.
If you have removed the 250-micron coating, look for any visible coating residue. Also check for signs of damaged, bent or broken fibre.
Never run an unprotected finger along bare glass. Besides contaminating the fibre, that action can cause injury from glass fragments.
Use an approved fibre-cleaning method to remove coating residue from the bare glass.
Clean in accordance with the splice or connector procedure. Additionally, avoid touching the cleaned glass before cleaving.
Place the clean fibre into the appropriate precision cleaver. Then complete the splice or termination according to the equipment manufacturer’s instructions.
The quality of the final result depends on the complete process, including stripping, cleaning, cleaving, alignment and protection.
Bare optical fibre can produce extremely fine glass shards. These shards may be difficult to see and can penetrate skin or eyes. Therefore, safe handling must form part of every stripping and splicing procedure.
Use suitable eye protection and work over a clean, controlled surface. Additionally, keep food and beverages away from the work area.
Place stripped fibre fragments directly into a dedicated fibre-shard container. Never leave them loose on a bench, floor or inside a tool case.
Do not dispose of bare fibre fragments in an open general-waste bin. Instead, follow your organisation’s disposal procedure for fibre shards.
Also, never use fingers to brush fragments from a surface. Use an appropriate collection method that prevents direct contact.
Finally, clean the work area after completing the task. Good housekeeping protects both the technician and anyone who uses the area afterwards.
No single hand stripper suits every layer of every fibre optic cable.
The correct choice depends on the cable diameter, jacket material, buffer construction, internal components and required preparation method. Therefore, technicians should match the tool to the specific layer rather than choosing a tool for the entire cable based on its general description.
Choose this tool when you need to remove one or more of the following compatible layers:
It becomes particularly useful when a task involves multiple stages from jacketed fibre through to bare glass.
A rotary cable stripper suits larger outer jackets and applications that require an adjustable cutting depth.
For example, Anderson Corporation’s RapidConnect Rotary Cable Stripper accommodates cable diameters from 4.5 mm to 25 mm. Therefore, it addresses substantially larger cables than the 2–3 mm jacket opening on the three-hole stripper.
A rotary tool can perform circumferential, spiral or longitudinal jacket cuts depending on its design and setup. However, it does not replace the fine coating-removal function of the 3 Hole Fibre Optic Cable Stripper.
Consequently, both tools can complement each other within a complete cable-preparation kit.
Many jacketed fibre constructions contain aramid strength yarn.
Once the technician removes the outer jacket, suitable Kevlar scissors can trim that yarn cleanly. Standard scissors may struggle with aramid fibres, while the stripping holes are not intended to cut strength yarn.
Therefore, use each tool for its intended material.
Loose-tube fibre cables require careful access to the tubes that contain the optical fibres.
A dedicated loose-tube cutter or buffer-tube tool may provide the correct cutting action for that construction. In contrast, the 900-micron opening on this product primarily addresses compatible tight buffer.
Using the wrong tool can place the fibres inside a loose tube at risk. Therefore, always distinguish between tight-buffered fibre and loose-tube cable before starting work.
A single-hole fibre stripper usually focuses on one layer, commonly the removal of 250-micron coating to expose 125-micron glass. That arrangement can work well when a technician only prepares coated fibres for fusion splicing.
However, it cannot necessarily remove a 900-micron buffer or a 2–3 mm jacket.
In comparison, a three-hole stripper consolidates three common preparation stages. Therefore, it offers greater versatility for technicians who work with jacketed, tight-buffered and coated fibres.
Nevertheless, more stripping holes do not automatically make a tool suitable for more cable families. The three-hole model still has defined size and construction limits.
Choose a single-hole stripper when the work consistently involves one coating size and the selected tool meets the required standard. Conversely, choose the three-hole version when the workflow regularly progresses through multiple supported layers.
Understanding cable construction prevents one of the most common tool-selection mistakes.
A tight-buffered fibre typically has a 900-micron polymer buffer applied closely around the 250-micron coated fibre. This construction improves handling and supports direct termination in many indoor cable designs.
A loose-tube cable uses one or more tubes that contain the fibres with additional space. The fibres can move within the tube as the cable responds to temperature and mechanical forces. Furthermore, the tube may contain gel or dry water-blocking materials.
Although both constructions use the word “buffer” in general industry discussions, they require different preparation methods.
The middle hole on the 3 Hole Fibre Optic Cable Stripper removes compatible 900-micron tight buffer. It should not automatically be used on a loose tube simply because the tube appears similar in size.
Therefore, check the cable datasheet or construction diagram before beginning preparation.
A clean and well-maintained tool supports more consistent stripping.
Small pieces of coating, buffer or jacket material can accumulate around the stripping openings. Consequently, inspect the tool regularly and remove debris using an appropriate method.
Do not use a hard object that could damage the precision stripping surfaces.
Keep the tool away from dirt, adhesives, cable gel and uncontrolled moisture.
If the tool becomes contaminated, clean it according to the applicable maintenance procedure. Additionally, ensure it is dry before returning it to storage.
Store the stripper in a termination kit, tool case or protective compartment.
Do not leave it loose among heavy tools that could damage the stripping edges or handles. Likewise, avoid using the stripper as pliers, cutters or a general-purpose gripping tool.
If stripping becomes inconsistent, inspect the tool before continuing.
Look for contamination, wear, physical damage or incorrect alignment. Also confirm that the cable layer matches the selected opening.
Replace a damaged or worn stripper rather than risking repeated preparation faults.
After cleaning or inspecting the tool, test it on a suitable offcut before returning to critical work.
A practice strip allows the technician to confirm correct operation without risking the installed fibre.
Selecting the wrong opening can prevent clean layer removal or place unnecessary stress on the fibre.
Therefore, identify both the current layer and the layer that should remain after stripping.
A 250-micron fibre still includes its protective coating. The glass beneath that coating measures approximately 125 microns.
Therefore, removing a 900-micron buffer does not yet prepare the bare glass for cleaving. The technician must also remove the 250-micron coating.
Some cable elements may have similar outside dimensions but different constructions.
Consequently, never assume that a component is compatible based on diameter alone. Confirm whether it is a tight buffer, tube or another protective layer.
An excessively long stripping action can increase friction and fibre stress.
Where the relevant work instruction permits, shorter controlled strips may provide better results. However, always follow the specified preparation procedure.
Side-loading the fibre can bend it against the stripping surface.
Instead, keep the stripping motion aligned with the fibre. This approach supports a smoother and more controlled result.
Once the glass becomes exposed, do not pass that section through the coating-removal opening again without a valid procedure.
Repeated contact can contaminate or stress the bare fibre.
Removing the coating does not guarantee that the glass is ready for cleaving.
Coating residue can remain after stripping. Therefore, clean the bare fibre using an approved method before placing it into the cleaver.
Aramid yarn requires appropriate scissors.
Attempting to cut it with the fibre-stripping holes can damage the tool and produce a poor result.
A contaminated or damaged stripper can undermine an otherwise well-controlled process.
Inspect the tool regularly and test it on an offcut if you have any doubts about its performance.
Efficient fibre preparation does not mean rushing each step. Instead, it means creating a repeatable process that reduces errors and unnecessary rework.
Start by arranging the required tools in the order of use. For example, a typical workstation may include:
Next, keep the working surface clean and well lit. Additionally, confirm all strip-length requirements before exposing the glass.
The technician should then prepare one fibre using the approved process and check the result. Once the process produces a clean strip and cleave, the technician can repeat it consistently across the remaining fibres.
This disciplined approach can improve productivity without sacrificing preparation quality.
The tool suits trained personnel who prepare compatible optical fibre constructions, including:
Although the hand tool appears straightforward, optical fibre preparation requires proper training. Therefore, inexperienced users should obtain instruction before working on live or critical fibre infrastructure.
It removes three common layers from compatible fibre constructions. Specifically, it can remove a 2–3 mm outer jacket, a 900-micron buffer and a 250-micron coating.
After the final stripping stage, the tool exposes the 125-micron bare glass fibre.
Each hole addresses a different material diameter and stripping stage.
The largest opening removes a compatible 2–3 mm jacket. Meanwhile, the middle opening removes a 900-micron buffer. Finally, the smallest opening removes the 250-micron coating.
No. Diameter alone does not confirm compatibility.
The cable’s jacket material, internal construction and preparation requirements also matter. Therefore, confirm the cable specification before using the tool.
The smallest opening removes the protective coating from a 250-micron coated fibre. It does not remove the glass itself.
Once the coating comes away, approximately 125-micron bare glass remains.
Yes, the appropriate opening removes a compatible 900-micron buffer and exposes the 250-micron coated fibre beneath it.
Do not assume that it can.
A 900-micron tight buffer differs from a loose tube. Therefore, use a suitable loose-tube tool when the cable construction requires one.
It can remove compatible 2–3 mm fibre jackets.
However, larger distribution, outdoor, loose-tube and armoured cables generally require other cable-opening tools.
The tool does not replace a rotary cable stripper, cable slitter or loose-tube cutter.
You may still use its smaller opening later to remove the 250-micron coating from an individual fibre after safely accessing the cable and tube. Nevertheless, each preparation stage requires a tool suited to the relevant layer.
No. Use dedicated Kevlar scissors to cut aramid strength yarn.
Not yet.
After removing the 250-micron coating, clean the bare glass using an approved fibre-cleaning method. Then cleave it with a suitable precision cleaver before splicing.
No hand tool can compensate for incorrect tool selection, damaged equipment or poor technique.
The dedicated stripping openings support controlled layer removal. However, technicians must still identify the cable correctly, maintain the tool and follow the required preparation process.
Yes. The smallest stripping opening can prepare compatible 250-micron coated fibre before cleaning and cleaving.
Yes, provided that the splice system requires preparation of a compatible fibre. Always follow the mechanical splice manufacturer’s strip-length and cleave requirements.
Yes, when the connector system and cable construction require the supported stripping dimensions.
However, connector designs vary. Therefore, follow the instructions supplied with the connector.
The stripping function relates to the external coating and buffer dimensions rather than the optical transmission mode.
Consequently, it can support compatible singlemode or multimode fibres when their physical constructions match the tool’s stripping functions.
The stated product specification addresses 250-micron coating removal.
Therefore, do not assume compatibility with 200-micron coated fibre unless Anderson Corporation confirms it.
The RapidConnect product uses dedicated stripping holes for its stated applications. Operators select the appropriate opening rather than configuring one opening for all three layers.
Place every bare fibre fragment directly into a dedicated fibre-shard container.
Do not leave shards on the workbench or dispose of them loosely in general waste. Instead, follow your organisation’s fibre-disposal procedure.
The ordering code for the RapidConnect 3 Hole Fibre Optic Cable Stripper is CFS-3.
The RapidConnect 3 Hole Fibre Optic Cable Stripper combines three common fibre-preparation functions in one compact tool.
Its largest opening removes a compatible 2–3 mm jacket. Next, the middle opening removes a compatible 900-micron buffer. Finally, the smallest opening removes the 250-micron coating and exposes the 125-micron glass fibre.
Therefore, the tool supports a clear preparation sequence for compatible jacketed and tight-buffered fibre constructions. Its ergonomic design also assists technicians during repetitive stripping work, while the compact format fits easily into a fibre termination kit.
The tool suits telecommunications, enterprise, industrial and laboratory environments. Furthermore, it can support fibre preparation before fusion splicing, mechanical splicing or field connector termination.
However, the best results depend on matching the tool to the cable. Technicians should always confirm the construction, select the correct stripping hole and follow a controlled preparation process.
The 3 Hole Fibre Optic Cable Stripper Knowledge Centre will provide practical guidance across tool selection, fibre construction, stripping technique, cleaning, cleaving and safe fibre handling.
As this Knowledge Centre expands, each article will help technicians understand not only which tool to use, but also how each preparation stage affects the finished splice or termination.
First, this section will explain how fibre optic strippers work and why different stripping openings suit different cable layers.
Articles coming soon.
Next, this section will explore 125-micron glass, 250-micron coated fibre, 900-micron tight buffer and 2–3 mm outer jackets.
Articles coming soon.
This section will provide practical guidance on selecting the correct opening, controlling the stripping motion and avoiding common preparation errors.
Articles coming soon.
Here, technicians will learn why 900-micron tight buffer differs from a loose buffer tube and why each construction may require different tools.
Articles coming soon.
After stripping, technicians must clean and cleave the exposed fibre correctly. Therefore, this section will examine cleaning methods, coating residue, cleaver preparation and handling practices.
Articles coming soon.
This section will connect stripping procedures with the requirements of fusion splicers and mechanical splice systems.
Articles coming soon.
Finally, this section will cover fibre-shard control, tool inspection, cleaning, storage and safe working practices.
Articles coming soon.
The RapidConnect 3 Hole Fibre Optic Cable Stripper provides three dedicated stripping stages in one compact and ergonomic tool.
It supports the removal of compatible 2–3 mm fibre jackets, 900-micron buffers and 250-micron coatings. Consequently, technicians can progress efficiently from jacketed fibre to 125-micron bare glass during common termination and splicing workflows.
For product availability, technical assistance or a quotation, contact Anderson Corporation.
Ordering code: CFS-3
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!
