- (61) 3 9761 7600
- sales@andcorp.com.au
The RapidConnect FTTH Drop Cable Stripper prepares flat drop cable, 2–3 mm jackets, 900 µm tight buffers and 250 µm coated fibre. Its compact, ergonomic design supports accurate and efficient FTTH cable preparation.
The FTTH Drop Cable Stripper gives fibre technicians one compact tool for preparing common fibre constructions during installation, termination and repair work. In particular, it supports flat FTTH drop cable, 2–3 mm jacketed fibre cable, 900 µm tight-buffered fibre and 250 µm coated fibre. Therefore, technicians can complete several preparation stages without repeatedly changing tools.
RapidConnect developed this multi-function fibre optic stripping tool for practical field use. Its precision stripping positions help technicians remove protective cable layers while retaining control around the underlying fibre. Furthermore, its lightweight construction and ergonomic handles support efficient, repetitive cable preparation.
Because the tool covers several common cable dimensions, it suits FTTH installations, telecommunications work, data centres and general fibre maintenance. However, technicians should always confirm cable dimensions and test the tool on a spare section before beginning production work.
FTTH cable preparation often involves several different material layers. First, the technician may need to remove the outer jacket from a flat drop cable. Next, the installer may need to access a 2–3 mm jacketed fibre leg or a 900 µm tight-buffered fibre. Finally, the technician must remove the 250 µm primary coating before cleaving or splicing the 125 µm glass fibre.
The RapidConnect FTTH Drop Cable Stripper supports these common preparation stages through dedicated stripping positions. As a result, it can reduce the number of separate stripping tools required for many routine installations.
The tool supports:
Nevertheless, “universal” does not mean that every fibre cable will fit the tool. Drop cables vary between manufacturers, while jacket materials, strength-member positions and overall dimensions can differ. Therefore, installers should always check the cable construction before use.
An FTTH drop cable stripper is a specialised cable-preparation tool. It helps technicians remove the protective layers surrounding the optical fibre inside a fibre-to-the-home drop cable.
Unlike a general-purpose electrical wire stripper, an FTTH tool must work around delicate optical fibre. The tool must remove the selected jacket, buffer or coating without placing unnecessary pressure on the glass. Consequently, its stripping openings and blades must match the intended cable dimensions closely.
The RapidConnect tool combines several fibre-preparation functions in one hand tool. It can prepare the flat cable construction commonly used for FTTH drops. In addition, it can strip other common fibre layers encountered after the outer jacket has been removed.
This multi-stage capability makes the tool useful for technicians who terminate or splice fibre in:
Because the tool supports both cable and fibre preparation, it offers more versatility than a stripper designed for only one coating diameter.
Optical fibre cable contains several layers that perform different functions. Therefore, technicians cannot treat every layer in the same way.
A typical flat FTTH drop cable may include:
The jacket protects the internal components from handling and environmental exposure. Meanwhile, the strength members help the cable withstand pulling and installation loads. The buffer and primary coating provide additional mechanical protection around the glass.
During termination, the technician must remove these layers in a controlled sequence. If the stripper cuts too deeply, it may damage the buffer or fibre. Conversely, if it does not cut deeply enough, the technician may pull excessively or repeat the stripping action.
A purpose-designed FTTH Drop Cable Stripper gives the technician dedicated stripping positions for the intended cable layers. As a result, the tool supports a more controlled and repeatable preparation process.
The RapidConnect FTTH Drop Cable Stripper supports four principal preparation functions. Each function corresponds to a different protective layer or cable size.
Flat drop cable commonly carries fibre from a distribution point towards a residence, tenancy or customer connection. Its flat profile often includes strength members positioned beside the optical fibre.
The stripper helps remove the jacket from compatible flat FTTH drop cable, including appropriate 3.1 × 2.0 mm constructions. Therefore, the technician can gain access to the internal fibre and strength members before continuing the termination process.
However, not every flat cable uses the same dimensions. Some constructions also incorporate different strength members, jacket thicknesses or fibre positions. Installers should consequently verify compatibility before stripping a live cable.
Many fibre pigtails, simplex cables and indoor fibre legs use a 2–3 mm outer jacket. The tool includes a stripping function for compatible cables within this range.
This capability becomes useful after a technician has accessed the internal cable or when preparing a separate jacketed fibre leg. In addition, it can help reduce the need to carry a dedicated 2–3 mm jacket stripper for routine work.
The stripper removes the jacket so the technician can access the protected fibre beneath it. Nevertheless, the exact layer exposed will depend on the cable’s construction.
A 900 µm tight buffer provides mechanical protection around coated optical fibre. Technicians commonly encounter it in pigtails, distribution cables and indoor fibre assemblies.
The RapidConnect stripper can remove compatible 900 µm tight buffering to expose the 250 µm coated fibre beneath it. This function supports termination and splicing workflows where the technician must prepare tight-buffered fibre.
Technicians should use a smooth, controlled stripping action. Additionally, they should avoid removing an excessive length in a single pull if the cable manufacturer recommends shorter stripping increments.
Before fusion splicing or mechanical termination, the installer normally removes the 250 µm primary coating to expose the 125 µm glass fibre. The technician can then clean and cleave the exposed glass.
The tool includes a dedicated position for this precision stripping stage. Consequently, technicians can progress from cable-jacket preparation to bare-fibre preparation with the same multi-function tool.
The glass fibre remains extremely delicate after coating removal. Therefore, installers must clean, cleave and protect it promptly. They should also avoid touching the exposed glass with their fingers.
The following table summarises the tool’s principal compatibility.
| Cable or fibre layer | Nominal size | Preparation purpose |
|---|---|---|
| Flat FTTH drop cable | Compatible flat constructions, including suitable 3.1 × 2.0 mm cable | Removes the outer jacket to access internal components |
| Jacketed fibre cable | 2–3 mm | Removes the outer cable jacket |
| Tight-buffered fibre | 900 µm | Removes the tight buffer to expose 250 µm coated fibre |
| Coated optical fibre | 250 µm | Removes the coating to expose 125 µm glass fibre |
Cable compatibility depends on more than the outside dimensions alone. For example, jacket hardness, wall thickness, strength-member position and temperature can affect stripping performance. Therefore, installers should test the tool on an offcut from the actual cable before commencing the final termination.
FTTH networks use drop cable to complete the connection between the distribution network and the customer premises. Although designs vary, flat indoor drop cables often place the optical fibre in the centre with strength members positioned on either side.
This arrangement produces a compact cable that installers can route through suitable building pathways. Furthermore, the strength members protect the central fibre from tensile loads during handling.
The jacket holds the complete construction together. However, the technician must separate that jacket cleanly during termination. An incorrectly selected knife or electrical stripper can cut too deeply, slip across the cable or damage internal components.
A dedicated flat drop cable stripping position guides the cable relative to the blades. Consequently, it gives the technician greater control than an improvised cutting method.
Once the outer jacket has been removed, the technician can identify the remaining fibre construction. The next preparation stage may involve a 2–3 mm jacket, a 900 µm buffer or direct access to coated fibre. Therefore, technicians must understand the cable structure rather than assuming every FTTH cable follows the same sequence.
The principal benefit is versatility. The stripper supports flat drop cable, jacketed fibre, tight-buffered fibre and coated fibre. Therefore, it can replace several separate tools during compatible installations.
This does not mean that one tool will suit every specialised cable. However, it covers the most common preparation stages identified in its operating range.
The tool uses purpose-designed stripping positions instead of relying on an exposed utility blade. As a result, technicians can achieve greater control around delicate fibre components.
Correct tool selection also helps reduce the risk of nicking the glass, scoring the buffer or cutting into an internal fibre.
The stripper weighs approximately 0.17 kg. Consequently, technicians can carry it in a standard fibre termination kit without adding significant weight.
Its compact form also suits work inside communications rooms, enclosures and customer premises where bench space may be limited.
Repetitive stripping can place strain on the installer’s hands. Therefore, the tool uses an ergonomic handle that supports a controlled gripping action.
The lightweight construction also helps reduce fatigue during repeated terminations. Nevertheless, technicians should keep the tool clean and use the correct stripping position rather than applying excessive force.
The hardened-steel blades provide the cutting action required to remove compatible fibre cable layers. Because each stripping position serves a defined purpose, the technician can select the opening that matches the current preparation stage.
Clean blades support consistent stripping. Conversely, contaminated or damaged blades may drag the coating, leave residue or require additional force.
Technicians can use the tool during field installations, network repairs or workshop preparation. For example, it can support FTTH service connections, pigtail preparation and training exercises.
Its operating temperature range of approximately –20°C to +45°C also supports use across varied working environments. However, cable jacket properties can change with temperature. Therefore, technicians should still perform a test strip under the actual site conditions.
The exact process depends on the cable construction and the termination method. Nevertheless, the following workflow provides a practical general guide.
First, confirm the cable type and dimensions. Check whether the cable is flat FTTH drop cable, 2–3 mm jacketed fibre, 900 µm tight-buffered fibre or 250 µm coated fibre.
If available, review the cable manufacturer’s datasheet. In addition, inspect the cable end to identify the jacket, strength members, buffer and coated fibre.
Never assume that two cables with similar external appearances use the same internal construction.
Next, identify how much material the connector, splice holder or termination system requires. The equipment manufacturer may specify jacket, buffer and coating strip lengths.
Mark the required length if necessary. This simple step helps prevent excessive stripping and reduces waste.
Use the opening intended for the layer being removed. For example, do not place 250 µm coated fibre into a position designed for a 2–3 mm jacket.
Each opening performs a different function. Therefore, correct selection remains essential for safe and effective preparation.
Place the cable or fibre into the selected opening. Keep it straight and properly seated.
Angled insertion can produce an uneven cut. Furthermore, twisting the tool during the stripping action may place additional stress on the fibre.
Close the tool with a controlled grip. Avoid striking or snapping the handles together.
The blades should perform the cutting action. Consequently, excessive hand force should not be necessary when the cable fits the selected stripping position.
Hold the cable securely and pull the tool in a straight, smooth motion. Avoid bending the fibre sharply while stripping.
For longer stripping requirements, the cable or connector manufacturer may recommend several shorter actions. This approach can reduce stress on the fibre and make coating removal more manageable.
After stripping, inspect the exposed material carefully. Check for:
If the stripped fibre appears damaged, cut it back and begin again. Do not proceed with a questionable fibre merely to save a small amount of cable.
After removing the 250 µm coating, clean the exposed 125 µm glass fibre with a suitable lint-free fibre wipe and approved cleaning fluid.
Cleaning removes coating residue and contamination before cleaving. However, technicians should avoid excessive wiping, which may place unnecessary stress on the bare glass.
Complete the next preparation stage without unnecessary delay. Depending on the installation, this may involve precision cleaving, fusion splicing or fitting a compatible field-installable connector.
Once stripped, the glass fibre lacks its normal protective coating. Therefore, technicians should keep it clean, straight and protected.
The stripper forms one part of a complete termination process. A typical workflow may include:
Although the stripper supports several stages, it does not replace the other tools required for correct fibre preparation. Technicians may still require Kevlar scissors, cleaning materials, a precision cleaver, a fusion splicer or a field-installable connector system.
The FTTH Drop Cable Stripper and a conventional 3-hole fibre stripper serve related but different needs.
A 3-hole fibre optic cable stripper primarily targets the progressive removal of round jacket, tight-buffer and coating layers. In contrast, the FTTH tool adds preparation capability for compatible flat drop cable.
| Feature | FTTH Drop Cable Stripper | 3-Hole Fibre Optic Stripper |
|---|---|---|
| Primary application | FTTH and flat drop cable preparation | General fibre preparation |
| Flat drop cable support | Yes, for compatible constructions | Generally not its primary function |
| 2–3 mm jacket stripping | Yes | Yes, depending on model |
| 900 µm buffer stripping | Yes | Yes |
| 250 µm coating stripping | Yes | Yes |
| Best suited to | FTTH installers and multi-stage drop preparation | General termination and splicing work |
Technicians who regularly work with flat FTTH cable will generally benefit from the dedicated flat-drop function. Conversely, technicians who mainly prepare pigtails or conventional round fibre may prefer the familiar configuration of a 3-hole stripper.
Some installation teams may carry both tools. That approach gives technicians a dedicated FTTH option alongside a conventional general-purpose fibre stripper.
The terms “stripper” and “slitter” sometimes appear interchangeably. However, the tools can perform different actions.
A cable slitter normally cuts longitudinally along a jacket. It may provide end access or mid-span access to the cable interior. In contrast, a stripper normally removes a measured section of jacket, buffer or coating from the cable end.
The RapidConnect product is positioned as an FTTH drop cable stripper because it supports end preparation and several stripping stages. It should not automatically be described as a mid-span cable access tool.
If a project requires mid-span access, technicians should select a tool specifically designed and approved for that function.
Electrical wire strippers target metallic conductors and electrical insulation. Therefore, their openings, cutting geometry and tolerances may not suit optical fibre.
Using an electrical stripper on fibre cable can create several problems:
A fibre-specific tool provides stripping positions designed around common fibre dimensions. Consequently, it gives technicians a more appropriate and controlled preparation method.
Correct technique remains just as important as correct tool selection. Even a precision stripper can damage fibre if the technician uses the wrong opening or applies poor technique.
Avoid bending the fibre sharply during coating removal. A tight bend places stress on the glass and may cause immediate breakage or hidden mechanical damage.
Use a straight pulling motion. Sideways movement can cause the blade to scrape or load one side of the fibre.
Removing a very long section in one action may increase friction. Therefore, shorter controlled strips may prove safer when the termination system allows them.
Twisting can score the fibre or create uneven stripping. Instead, align the stripper with the cable and pull directly away from the prepared section.
Look for coating residue, surface marks and abnormal bends. If available, use appropriate magnification and follow the termination manufacturer’s inspection requirements.
A damaged fibre can cause a failed splice or an unreliable connection. Therefore, remove the affected section and repeat the preparation whenever damage is suspected.
A fibre stripper requires regular care. Coating residue, jacket fragments and dirt can collect around the blades. Over time, this contamination may affect the stripping action.
Check the stripping openings for visible residue, corrosion, chips or deformation. Additionally, confirm that the handles open and close smoothly.
Use an appropriate brush or dry cleaning method to remove loose jacket and coating fragments. Keep your fingers away from the blade edges.
A metal pick or screwdriver can damage a precision edge. Therefore, use a cleaning method that will not scratch or distort the blades.
After use, store the stripper in a clean, dry tool case. Moisture and contamination can affect steel components and moving surfaces.
Never file, grind or enlarge a stripping position. Modification will change its cutting dimensions and may make the tool unsafe for fibre preparation.
After cleaning or after a long storage period, test the tool on a spare cable section. This confirms that the stripping action remains clean before work begins on the final cable.
The cable may not match the stripping position. Alternatively, the blades may contain residue or the jacket may have become stiff in cold conditions.
Confirm the dimensions, inspect the tool and perform another test strip on an offcut.
The technician may have used the wrong opening, pulled at an angle or attempted to remove too much material at once. In addition, the fibre may already have contained mechanical damage.
Cut the cable back to a sound section. Then, check the tool position and repeat the process with a straight, controlled action.
The blade opening may contain residue. Alternatively, the stripping action may have stopped before the coating separated completely.
Clean the tool and repeat the preparation on a new fibre section. Do not scrape coating from the bare glass with a knife.
Some buffer materials become harder to strip over long distances. Temperature can also affect their behaviour.
Where permitted, remove the buffer in shorter sections. Additionally, confirm that the tool and cable remain within their recommended operating conditions.
The cable may not be seated correctly, or its dimensions may not suit the selected opening. Stop immediately and reassess the construction.
Do not compensate by squeezing the handles harder. Excessive pressure may damage the internal fibre.
Before choosing a stripper, identify every cable layer involved in the installation.
Ask the following questions:
The RapidConnect FTTH Drop Cable Stripper suits technicians who need flat-drop capability together with common fibre-stripping functions. However, a dedicated rotary stripper, cable slitter or other access tool may suit different cable constructions.
The tool supports cable preparation where an optical drop enters a home or residential development. Consequently, installers can prepare compatible flat cable before fitting the required termination or splice.
Commercial premises may use FTTH-style drop cable, compact indoor fibre or jacketed fibre legs. Therefore, the multi-function design can support several preparation stages within one project.
Technicians can carry the lightweight stripper for service activation, maintenance and repair work. Its compact design also helps when working inside access enclosures or confined communications spaces.
Although flat drop cable remains its distinguishing application, the tool also supports compatible 2–3 mm jacketed cable, 900 µm tight-buffered fibre and 250 µm coated fibre. As a result, it can assist with selected preparation tasks inside technical facilities.
The clearly separated stripping functions can help trainees understand the progressive layers of a fibre cable. However, instructors should still demonstrate correct fibre handling, cleaning, cleaving and disposal procedures.
Bare optical fibre can penetrate skin and may become difficult to locate. Therefore, technicians must handle and dispose of fibre scraps carefully.
Recommended safety practices include:
Do not dispose of bare fibre fragments in ordinary open waste. Because the fragments are small and transparent, they can create a hidden puncture hazard.
| Specification | Details |
|---|---|
| Product name | RapidConnect FTTH Drop Cable Stripper |
| Product type | Multi-function fibre optic stripping tool |
| Product code | RC-US |
| Flat cable compatibility | Compatible flat FTTH drop cable, including suitable 3.1 × 2.0 mm constructions |
| Jacketed cable range | 2–3 mm |
| Tight-buffer compatibility | 900 µm |
| Coated fibre compatibility | 250 µm coating over 125 µm glass fibre |
| Blade material | Hardened steel |
| Approximate weight | 0.17 kg |
| Operating temperature | –20°C to +45°C |
| Primary applications | FTTH installation, fibre termination, maintenance and repair |
Specifications relate to the stated product design. However, Anderson Corporation recommends testing the tool with the actual cable before production use.
Fibre technicians need tools that match the cable construction in front of them. Therefore, a stripper that supports several common preparation stages can simplify the installation toolkit.
The RapidConnect FTTH Drop Cable Stripper combines:
Most importantly, the product targets the complete progression from a compatible FTTH drop cable towards clean bare fibre ready for the next preparation stage.
An FTTH drop cable stripper is a fibre-preparation tool designed to remove protective material from fibre-to-the-home drop cable. Depending on its design, it may also strip jacketed fibre, tight buffering and primary fibre coating.
Its distinguishing purpose is preparing compatible flat FTTH drop cable. However, the RapidConnect tool also supports 2–3 mm jacketed fibre, 900 µm tight-buffered fibre and 250 µm coated fibre.
It is designed for compatible flat drop constructions, including suitable 3.1 × 2.0 mm cable. Nevertheless, cable designs differ. Therefore, confirm the actual dimensions and test the tool on an offcut before use.
Yes. The tool includes a stripping function for compatible 2–3 mm jacketed fibre cable.
Yes. It can remove compatible 900 µm tight buffering to expose the 250 µm coated fibre beneath it.
Yes. The relevant stripping position removes the 250 µm primary coating from standard 125 µm glass fibre.
No protective layer exists below the 125 µm glass cladding that a technician should strip. Instead, the tool removes the 250 µm coating and exposes the 125 µm glass fibre for cleaning and cleaving.
No. Although both tools can support common buffer and coating sizes, this product adds a function for compatible flat FTTH drop cable. Therefore, it targets FTTH drop preparation more directly.
The tool supports compatible 2–3 mm jacketed fibre cable. However, confirm the cable dimensions and construction before use.
The product is positioned for cable-end stripping and fibre preparation. Use a dedicated mid-span access tool when the project requires entry into an uncut cable.
No single stripper can guarantee compatibility with every construction. Flat drop cables vary in dimensions, jacket thickness, material and strength-member arrangement. Therefore, always complete a test strip first.
Compatibility depends on the complete construction and the position of the strength members. Do not cut metallic components unless the tool and cable manufacturer specifically permit that action.
No. The stripper removes the jacket, buffer or coating. A precision fibre cleaver then prepares the glass end face for fusion splicing or another compatible termination method.
Yes. Use a suitable lint-free fibre wipe and approved cleaning fluid to remove coating residue before cleaving.
Place every bare-fibre fragment directly into a designated fibre disposal container. Never leave fibre scraps loose on a bench, floor or inside an enclosure.
Inspect it before and after each work session. Additionally, clean it whenever coating or jacket residue becomes visible around the stripping openings.
Stop and inspect the selected stripping position, cable dimensions and technique. Then, cut the cable back to a sound section and prepare it again.
Yes. Its compact form, 0.17 kg approximate weight and multi-function design suit field installation and maintenance work.
The specified operating range is approximately –20°C to +45°C. However, cable jackets and buffers can behave differently at temperature extremes. Therefore, test the stripping action under the actual site conditions.
For product demonstrations, installation guidance and practical fibre optic information, visit the Anderson Fibre Products YouTube Channel.
This position works well because the link supports readers who have finished the detailed product information but may want practical video guidance before reaching the Knowledge Centre.
The FTTH Drop Cable Stripper Knowledge Centre will provide practical guidance across tool selection, drop cable construction, preparation methods, fibre handling and maintenance. Therefore, as the Knowledge Centre expands, each section will help technicians complete safer and more consistent FTTH terminations.
First, this section will explain how flat FTTH drop cable is constructed and why its jacket, fibre and strength members require controlled preparation.
Articles coming soon.
Next, this section will compare FTTH drop cable strippers, 3-hole fibre strippers, rotary cable strippers and dedicated cable-access tools.
Articles coming soon.
This section will explore how technicians identify compatible cable, determine stripping lengths and remove the outer jacket without damaging the internal fibre.
Articles coming soon.
Additionally, this section will explain the differences between 2–3 mm jackets, 900 µm tight buffers, 250 µm primary coatings and 125 µm glass fibre.
Articles coming soon.
This section will cover the complete sequence from drop-cable preparation through cleaning, cleaving, splicing and connector installation.
Articles coming soon.
Finally, this section will provide guidance on blade care, residue removal, test stripping and safe fibre-scrap disposal.
Articles coming soon.
The RapidConnect FTTH Drop Cable Stripper combines flat drop cable preparation with three common fibre-stripping stages. Therefore, it gives FTTH installers and fibre technicians a practical way to prepare compatible cable using one compact hand tool.
Its dedicated functions support flat FTTH drop cable, 2–3 mm jacketed fibre, 900 µm tight-buffered fibre and 250 µm coated fibre. Furthermore, its hardened-steel blades, ergonomic handles and lightweight construction suit both field and workshop use.
Correct preparation protects the fibre and supports reliable termination results. Consequently, technicians should always confirm cable compatibility, use the correct stripping position and inspect the fibre after every stripping action.
Contact Anderson Corporation for product availability, technical guidance or help selecting the appropriate fibre stripping tool for your installation.
