FBT-1×2-SM-2.0-SCAPC
1×2 Singlemode FBT Splitter Module with 2.0 mm SC/APC Leads
Model FBT-1×2-SM-2.0-SCAPC is a connectorized 1×2 FBT splitter assembly shown with one input lead, two output leads, a protective black module and SC/APC terminations. Use this page to confirm the exact split ratio, lead length, optical acceptance limits and required documents before the configuration is released for quotation.

Model FBT-1x2-SM-2.0-SCAPC is a connectorized 1×2 FBT splitter assembly shown with one input lead, two output leads, a protective black module and SC/APC terminations. Use this page to confirm the exact split ratio, lead length, optical acceptance limits and required documents before the configuration is released for quotation.
Technical notice
The supplied material confirms the working configuration visually, but it does not include a controlled model datasheet, drawing or optical test report. Numerical specifications below remain TBC — source required. Any family or competitor figure is a sourcing reference only and not a guarantee for this model.
Primary action: Request the controlled datasheet and configuration review.
Product at a glance
| Field | Working value | Release status |
|---|---|---|
| Model | FBT-1×2-SM-2.0-SCAPC | TBC — product-owner approval required |
| Technology | FBT (fused biconical taper) | TBC — source required |
| Port configuration | 1 input × 2 outputs | Observed in supplied images |
| Fiber mode | Singlemode | TBC — source required |
| Package | Protective black module / ABS module | Module observed; material TBC |
| Lead outer diameter | 2.0 mm | TBC — drawing/BOM required |
| Connector | SC/APC | Visually consistent; BOM confirmation required |
| Split ratio | TBC — source required | Do not assume 50/50 from the family name |
| Input/output lead length | TBC — source required | Confirm tolerance and reference point |
| Operating wavelength/window | TBC — source required | Confirm ordered window and bandwidth |
| Insertion loss | TBC — source required | Model-matched limits and test reference planes required |
| Return loss / directivity / PDL / excess loss | TBC — source required | Model-matched test evidence required |
| Dimensions | TBC — source required | Dimensioned drawing required |
| Operating/storage conditions | TBC — source required | Do not infer indoor/outdoor suitability |
When this configuration fits
Select this configuration when the approved design requires a 1×2 FBT device with connectorized SC/APC interfaces and mechanically protected leads rather than an unterminated, splice-in component. Before approval, verify that the module dimensions, lead length and bend-management space fit the intended enclosure or tray.
This page does not establish compatibility with a specific PON, CATV, monitoring or test system. System use depends on the approved wavelength window, split ratio, optical budget, connector interface and environmental limits.
Choose the correct 1×2 option
| Buyer requirement | Use this page | Use another owner page |
|---|---|---|
| Connectorized 1×2 FBT, SC/APC, protected 2.0 mm leads | Yes, after exact configuration approval | — |
| Unterminated 1×2 FBT for fusion splicing | No | Use the connectorless 1×2 FBT product page |
| Broad FBT ratio/package/connector selection | No | Use the FBT splitter category page |
| PLC technology or wavelength-flat PLC behavior | No | Use the relevant PLC product page and PLC-vs-FBT guide |
| Generic splitter loss planning | No | Use the splitter loss guide and the model-specific test record |
Configuration items to confirm before quotation
- Split ratio: state the required output ratio and tolerance. Do not rely on a family default.
- Wavelength/window: identify the operating wavelength or approved window and bandwidth.
- Fiber and lead construction: confirm the exact fiber grade, 2.0 mm lead construction and jacket material.
- Connector interface: confirm SC/APC on the input and both outputs, including any adapter/interface constraints.
- Lead length: specify input and output lengths, tolerance and measurement reference points.
- Optical acceptance limits: define insertion loss per path, return loss, directivity, PDL, excess loss and any uniformity requirement.
- Mechanical fit: approve the module dimensions, lead exit orientation, bend management and mounting/retention method.
- Environment: state operating/storage temperature and whether the host location is controlled, cabinet-mounted or exposed.
- Test/document package: state whether a datasheet, drawing, model approval record, per-unit test record or batch report is required.
- Commercial release: provide quantity, packaging/label requirements, delivery destination and requested date.
Test and acceptance record
The product should not be accepted against generic family values. Ask BWNFiber to return the model-matched acceptance table with:
- test wavelengths and source conditions;
- reference-plane definition and whether connector loss is included;
- insertion loss for each output path;
- split-ratio tolerance or measured power distribution;
- return loss, directivity, PDL and excess-loss limits when applicable;
- test equipment identification, calibration status and record format;
- sample, per-unit or batch-level reporting scope.
Current status: TBC — no model-matched test report was supplied for this review.
Package, labels and receiving checks
Before a batch is released, match the purchase order, product label, drawing and test record to the same approved model/revision. Confirm that the input and output leads are identifiable and that any short label code—such as 10-10—has an approved definition. The supplied draft’s explanation of that code is not release-ready without the labeling convention or drawing.
At receiving inspection, check the model/revision, quantity, visible connector condition, lead identification, packaging condition and document set before optical acceptance testing.
Required RFQ information
Send the following in one request:
- model or requested configuration;
- split ratio and tolerance;
- wavelength/window;
- fiber grade and 2.0 mm lead construction;
- connector type/polish for input and outputs;
- input/output lead lengths and tolerances;
- optical acceptance limits and connector reference planes;
- module dimensions or host-equipment drawing;
- labeling, packaging and test-report requirements;
- quantity, destination and requested delivery date.
Primary CTA: Request the controlled datasheet and configuration review.
Secondary CTA: Send the host drawing and RFQ fields for a model-match check.
Downloads
- Controlled model datasheet:
TBC — source required - Dimensioned drawing and port map:
TBC — source required - Model-matched optical test/acceptance record:
TBC — source required - Compliance evidence for the approved configuration:
TBC — source required
1×2 Singlemode FBT Splitter Module with 2.0 mm SC/APC Leads FAQ
Is this the same product as the connectorless 1×2 FBT splitter?
No. The photographed configuration is connectorized and housed in a protective module. A connectorless device is intended for a different installation method and must keep a separate product record.
Is the split ratio automatically 50/50?
Not from the model information supplied for this review. Put the required ratio and tolerance on the purchase order and match them to the approved datasheet and test record.
Does the published insertion loss include the SC/APC connectors?
This cannot be answered without the model-matched test method. The acceptance record must identify the reference planes and whether connector loss is included.
What does `10-10` on a module label mean?
TBC — source required. Confirm the code against the approved label convention or drawing; do not infer lead length or split ratio from an unexplained code.
What should be checked before placing the module in an enclosure?
Approve the module dimensions, lead exit, minimum routing space, connector access, lead length and bend management against the host drawing. Environmental suitability also requires model-specific evidence.
Related Products
Explore additional fiber optic products related to this item and suitable for similar network deployment needs.