Rack Mounted PLC Splitter
Rack-Level PLC Power Distribution
Rack Mounted PLC Splitters for 19-Inch PON Distribution
Before asking for a quote, record the port map, connector polish, optical limits, rack dimensions, quantity and delivery schedule. That information exposes incompatible chassis early and gives suppliers the same scope to price.
Category Products
Rack Mounted PLC Splitter Product Range
Rack Mounted PLC Splitter
BWN-PLC-RM 19″ Rack Mounted LGX PLC Splitter SC/APC SC/UPC
Rack Mounted PLC Splitter
BWN 1×16 PLC Splitter – 19″ 1U Rackmount – SC/APC
Rack Mounted PLC Splitter
BWN-PLC-RM-1X32 19″ 1U Rack Mount 1×32 SC/APC PLC Optical Splitter
Rack Mounted PLC Splitter
BWN-PLC-RM-1X64 19″ 1U Rack Mount 1×64 SC/APC PLC Fiber Splitter
Quick Answer
What Is a Rack Mounted PLC Splitter?
Quick answer: A rack mounted PLC splitter divides optical power inside a rack chassis and presents the inputs and outputs at the front panel. The shortlist must match the 1×N or 2×N split, cabinet envelope, connector polish, port map and worst-path PON loss budget. Output count by itself is not enough.
Product selection
Find a rack mounted PLC splitter for your cabinet
Start with the 1×N or 2×N split, then check rack width, usable rack-unit height, chassis depth, front-panel interface and optical budget. Remove a model from the shortlist as soon as one of those fields fails.
Channel Configuration1×N or 2×N and the exact number of outputs
Rack and Chassis Fit19-inch width, rack-unit height, depth and mounting pattern
Front-Panel PortsInput and output count, connector family, polish and labels
Optical LimitsLoss, uniformity, PDL, return loss and wavelength
Selection guide
How to choose a rack mounted PLC splitter
A 19-inch rack mount PLC splitter may also be described as a 1U PLC splitter or PON rack splitter. Those labels identify the general format, but output count alone does not establish chassis depth, mounting pattern, connector layout or optical performance.
| 1×N or 2×N Configuration | State the exact input and output count. For a 2×N design, explain how both inputs are used and define the required input and output identification. |
|---|---|
| Rack width, height and depth | State the rack width, usable rack-unit height and maximum chassis depth. Check the rail position, front and rear clearance and available cable-management space. |
| Mounting ears and rail position | Record the mounting-hole pattern, front or recessed rail position and fixing hardware. Note any rack units that must remain clear for patch-cord routing. |
| Front-panel port map | Define every input and output adapter, label sequence, reserved position and cascade stage. Leave enough access for a technician to clean, inspect and reconnect one port. |
| Connector and polish | State the interface and UPC or APC polish for every port, including the mating adapters and patch cords. Never mate APC to UPC. |
| Optical Budget | Calculate acceptable loss for every route, including the splitter, connectors, splices, fiber distance, equipment margin and any cascaded splitter stage. |
| Insertion Loss and Uniformity | Use the maximum insertion-loss and channel-uniformity values for the exact configuration. Do not substitute a generic category claim or another split ratio. |
| Wavelength, PDL, Return Loss and Directivity | Define the operating band and acceptance limits for the complete connectorized rack assembly. Check the exact model datasheet and test record. |
| Test data and documents | The RFQ should name the current model datasheet, optical acceptance limits, port map, dimensional drawing and any compliance evidence required by the project. |
Published BWNFiber rack splitter examples
The referenced model pages list G657A or customized fiber, a 1260 to 1650 nm operating wavelength, 55 dB return loss and a -40 to 85°C operating range. The table below shows the model-level differences that matter when building a shortlist.
| Model | Published Configuration | Insertion Loss, P/S Grade | Uniformity / PDL | Approval Focus |
|---|---|---|---|---|
| BWN-PLC-RM | 19-inch family; SC, LC or ST; APC or UPC | Depends on split ratio | Depends on split ratio | Chassis height, depth and port arrangement |
| BWN-PLC-RM-1X32 | 19-inch 1U, 1×32, SC/APC | 16.5 / 16.9 dB | ≤1.5 dB / ≤0.3 dB | Complete connectorized path limits and cabinet fit |
| BWN-PLC-RM-1X64 | 19-inch 1U, 1×64, SC/APC | 20.5 / 21.0 dB | ≤2.0 dB / ≤0.35 dB | Loss-budget margin, port access and cabinet fit |
Specification notice: These values are sourcing references for the named models, not a guarantee of category-wide limits. Approve the datasheet, dimensional drawing, connectorized test record and project-required compliance evidence before ordering.
Documents for a shortlisted model
Give BWNFiber the split ratio and connector interface when asking for the current datasheet, dimensional drawing and port map. This ties the document request to one configuration instead of a general category brochure.
Request a Model Datasheet and DrawingNormalize supplier quotes before comparing price
A price comparison is valid only when both quotations cover the same split function, connectorized loss boundary, rack envelope, evidence package and commercial scope. Put each requirement on its own line and mark deviations before comparing totals.
| Comparison Field | Required RFQ Entry | Reject or Clarify When |
|---|---|---|
| Optical topology | 1×N or 2×N, split ratio, cascade stage and served-path count. | The offer changes the split ratio, omits the second input or assumes a different cascade plan. |
| Loss boundary | Maximum per-path insertion loss, test wavelengths and whether adapters/connectors are included. | The table shows a bare-device value while the order is for a connectorized rack assembly. |
| Rack envelope | Rack width, rack units, maximum depth, rail position, mounting-hole pattern and door/service clearance. | The quotation says only "19-inch 1U" without a dimensional drawing. |
| Interfaces | Input/output connector family, UPC/APC polish, adapter orientation, port labels and patch-cord exit direction. | The interface or polish differs from the mating network, or the port map is absent. |
| Acceptance evidence | Per-path IL results plus agreed uniformity, PDL, return loss, directivity and end-face requirements. | Only an average, generic pass statement or unrelated split-ratio report is supplied. |
| Document scope | Model datasheet, signed drawing, port map, test report and exact-model compliance evidence where required. | A category brochure is presented as evidence for every model and customization. |
| Commercial scope | Quantity, included accessories, packaging, incoterm, destination, schedule and quotation validity. | A lower price excludes mounting hardware, documents, freight or the required delivery scope. |
Build the PON loss budget with the worst splitter path
Final margin approval needs the maximum insertion-loss limit for the quoted connectorized configuration, not a typical or average splitter value. Add the route losses and the project engineering reserve to that worst-path figure. The fiber splitter loss chart explains ratio-level loss planning; the purchase order still needs the limit for the exact rack assembly.
| Budget Term | Project Input | Control |
|---|---|---|
| System optical budget | Use the applicable GPON, XGS-PON or other system class and the approved equipment specification. | Do not transfer a budget from a different optical class. |
| Fiber-route loss | Route length multiplied by the approved attenuation coefficient at each design wavelength. | Use the actual route and project wavelength assumptions. |
| Splice and connector loss | Number of events multiplied by the project allowance, including all splitter-panel mating pairs. | Make connector inclusion explicit; do not count or omit it twice. |
| Splitter loss | Worst-path maximum IL for the exact split ratio, grade, connectors and test wavelength. | Do not use theoretical split loss or a bare-device figure as the installed assembly value. |
| Engineering reserve | Project-defined allowance for aging, repair events, measurement uncertainty and operating variation. | The owner or network engineer approves this value. |
| Remaining margin | System budget − fiber loss − splice loss − connector loss − splitter loss − engineering reserve. | If the result is negative, change the topology, split ratio, component limits or system class before ordering. |
Check the budget against the cabinet drawing
BWNFiber can compare the PON budget and cabinet drawing with a proposed model, then flag missing RFQ fields or configuration conflicts. The project engineer still approves the system budget and site requirements.
Ask for a PON Budget and Rack Drawing ReviewUse the evidence ladder before releasing the purchase order
Supplier documents do not carry equal weight. A category page can support a shortlist, but it cannot approve a customized rack assembly. Move down the ladder as the buying decision becomes harder to reverse.
| Evidence level | What it can support | What it cannot support | Buyer control |
|---|---|---|---|
| Category page or catalogue | Family screening, available package types and possible interfaces. | Final dimensions, exact optical limits, certification or customization approval. | Use it to build the shortlist only. |
| Exact-model datasheet | Named configuration, fiber grade, wavelength range and optical acceptance limits. | Cabinet fit when the chassis drawing or revision is missing. | Match the model code and revision to the quotation. |
| Dimensional drawing and port map | Rack envelope, mounting details, adapter positions, labels and service clearance. | Optical acceptance unless the corresponding limits are also identified. | Sign or otherwise approve the drawing revision before production. |
| Sample or first-article record | The agreed physical configuration and requested customization on the inspected unit. | Automatic acceptance of later batches without an agreed production control. | Record the model, drawing revision, inspection method and approved deviations. |
| Configuration-linked test report | Per-path results and other agreed measurements for the stated order, unit or lot. | Requirements that were never included in the test method or acceptance limits. | Check traceability, wavelengths, reference method and pass/fail limits. |
| Quotation and purchase order | The commercial scope, accessories, documents, quantity, schedule and accepted deviations. | Unwritten assumptions or capability discussed but omitted from the approved order. | Resolve every exception and attach the approved technical documents. |
Release rule: Do not release the purchase order while the model code, drawing revision, connectorized loss boundary or required document scope remains open. A low price does not compensate for an undefined deliverable.
Form-factor decision
Rack mount vs LGX module vs fiber patch panel
These products can occupy the same cabinet but perform different jobs. Separate the splitting function, mounting format and patching function before approving the BOM.
| Format | Primary Function | Host Hardware | Use It When | Verify Before Approval |
|---|---|---|---|---|
| Rack Mounted PLC Splitter | Divides optical power inside a rack chassis. | Standard rack or compatible cabinet. | The project needs a defined rack position and front-panel splitter ports. | Rack units, depth, mounting ears, port map and path loss. |
| LGX Insertion Module | Provides a plug-in splitter module. | Compatible LGX shelf or enclosure. | The cabinet already uses modular LGX bays. | Module envelope, latch or retention method, adapter orientation and host compatibility. |
| Fiber Patch Panel | Terminates, organizes or cross-connects fibers without intentional power splitting. | Rack or wall enclosure, depending on design. | The requirement is termination, splicing or cross-connection. | Adapter count, splice capacity, cable entry and fiber management. |
Technical scope
Which fiber and cable terms apply to a rack PLC splitter?
A rack PLC splitter is a passive branching assembly, not an outside-plant cable. Fiber grade, splitter performance, connector interfaces and cabinet integration belong in this specification; aerial-cable strength, crush resistance and jacket construction belong in separate feeder, distribution or drop-cable BOM items.
| Term | Relevance to This Product | Procurement Decision |
|---|---|---|
| ITU-T G.657.A1 / A2 | Bend-loss-insensitive single-mode fiber can be useful where pigtails and patch cords must route through a compact rack or cabinet. G.657 category A remains compliant with G.652 single-mode fiber requirements, but A1 and A2 have different macrobending limits. | The datasheet should name the exact fiber subcategory. The generic label "G657A" is insufficient when bend performance matters. |
| ITU-T G.652.D | G.652 defines single-mode fiber and cable characteristics. A G.652.D network interface may be compatible with G.657.A fiber, but cabinet routing still has to respect the specified cable and assembly bend limits. | Check the network fiber specification, assembly fiber grade and mating patch-cord type together. |
| OM3 / OM4 / OM5 | These are multimode fiber categories and are not automatically relevant to a PON rack splitter built around single-mode PLC components. | Do not add a multimode requirement unless the exact splitter model, wavelengths and complete optical design are specified for it. |
| Loose tube, tight buffered, armored, ADSS, drop and duct cable | These describe cable construction or deployment methods outside the rack splitter chassis. | Specify tensile strength, crush resistance, jacket material, UV resistance and installation method on the corresponding cable line item, not as unsupported chassis claims. |
Scope boundary: Wind load and span length belong in an ADSS cable specification. Front-panel clearance, connector condition and per-path loss belong in the rack splitter specification. Mixing these requirements produces an inaccurate RFQ.
Turn the network design into four purchase controls
Complete these checks in order:
- Close the loss budget. Include splitter loss, connectors, splices, fiber distance, engineering margin and every cascaded stage for each subscriber or branch path.
- Prove cabinet fit. Check rack width, usable rack units, chassis depth, mounting-ear position, fixing hardware and front/rear service clearance.
- Freeze the port plan. Identify both inputs on a 2×N design, every output, reserved positions, connector polish, label sequence and patch-cord exit direction.
- Bind documents to the model. The approved datasheet, drawing, optical limits and compliance evidence must identify the ordered configuration.
Quote comparison: Compare suppliers on the same split ratio, chassis, connectors, optical limits, document package, quantity and schedule. A lower price based on a different scope is not an equivalent offer.
Set pass/fail criteria before the purchase order
An inspection report has no purchasing value unless its limits match the approved configuration. Set the criteria before production so the receiving team does not have to interpret generic values after delivery.
- Mechanical: chassis dimensions, mounting ears, fixing points and front-panel layout match the approved drawing.
- Optical: insertion loss is recorded for every input-to-output path, with uniformity, PDL, return loss and directivity checked against the agreed limits and test wavelength.
- Interface: adapter type, polish, end-face condition and label sequence match the port map. Inspect and clean connector end faces before mating; visual inspection does not replace optical measurement.
- Traceability: the test record identifies the model, configuration and applicable order or lot.
OTDR boundary: OTDR can help locate events and troubleshoot the installed route, but it is not a substitute for direct acceptance measurements on every splitter path. Define the light source, power meter, reference method, wavelengths and pass/fail limits for insertion loss; define the return-loss method separately where required.
Field integration review
Rack splitter risks that drawings and labels must resolve
A splitter can meet its optical specification and still fail at installation. The checks below deal with rack clearance, service access, labeling, cabinet protection and receiving inspection. They are engineering review points, not customer case claims.
Door and bend clearance
Measure from the rack rail to the closed door with the adapter, connector boot and managed patch-cord loop in place. A chassis can fit the rack while the connected fiber still violates the approved routing envelope.
Service access at high port counts
Check whether a technician can inspect, clean and reconnect one port without loading adjacent connectors. Dense front panels need usable finger access, readable labels and a defined patch-cord exit path.
Port-map and cascade errors
Bind the panel labels to the OLT/PON plan and record the cascade stage. A swapped input, duplicated output label or undocumented reserved port can turn later fault isolation into a manual tracing exercise.
Protected outdoor cabinets
A rack chassis is not a weatherproof enclosure. For roadside or outdoor cabinets, verify the host cabinet's sealing, condensation control, operating temperature, cable entry and maintenance access.
Transport and incoming inspection
Before installation, inspect the mounting ears, front panel, adapters, dust caps and labels against the approved drawing. Keep connector protection in place until inspection and cleaning are scheduled.
Regional project requirements
An international standard reference does not prove local acceptance. The project owner identifies the contract specification, local code, customer test format, language and destination-market documents.
Selection scenarios with clear stop conditions
These examples show the decision logic only. They are not customer case studies, and they do not claim deployment results.
| Illustrative Scenario | Likely Fit | Approve Only After | Stop Condition |
|---|---|---|---|
| Central-office 1×32 distribution | A 19-inch 1U, front-access rack splitter can centralize branch ports beside the ODF. | The worst-path budget closes and the signed drawing confirms depth, rail position, port labels and patch-cord clearance. | The connectorized IL limit is missing, or the door cannot close with the approved routing. |
| Protected roadside cabinet | A rack splitter may fit inside an environmental cabinet or shelter with sufficient internal space. | The host cabinet controls water entry, condensation and temperature, and the cable entry does not load the front-panel connectors. | The rack chassis is expected to provide standalone weather sealing or outdoor exposure protection. |
| Existing LGX-based cabinet | An LGX module may be more serviceable than a separate rack chassis when compatible slots are already available. | The module envelope, retention method, adapter orientation and host shelf are verified. | Adding a rack shelf consumes scarce rack units without improving access or capacity. |
Rack chassis or LGX module?
Send the cabinet type, available rack units or LGX slots, split ratio and front-panel interface. BWNFiber can compare that format with the published options and list the dimensions or documents still awaiting approval.
Request a Project-Based Format ReviewRack splitter procurement mistakes
| Mistake | Likely Consequence | Control |
|---|---|---|
| Selecting by output count alone | The chassis or connected patch cords do not fit the cabinet. | Approve the dimensional drawing and service-clearance envelope. |
| Comparing bare-device IL with connectorized IL | The PON margin is overstated and quotations are not equivalent. | State the loss boundary, connector count, test wavelength and reference method. |
| Mixing APC and UPC interfaces | Physical-contact mismatch can increase reflection and damage mating surfaces. | Freeze connector family and polish for every input and output. |
| Accepting an average test value | A high-loss output can be hidden by lower-loss ports. | Require every input-to-output path and compare the worst port with the maximum limit. |
| Treating a standard reference as model certification | The purchased customization may not have evidence for the claimed qualification. | Ask for configuration-linked evidence that names the standard edition and tested article. |
| Ignoring labels and maintenance access | Commissioning and fault isolation require manual tracing or disturb adjacent fibers. | Approve the port map, label sequence, finger access and patch-cord exit direction. |
What each standard supports
The references below define fiber categories, component requirements or test methods. None of them proves compliance for every rack assembly. The evidence still has to name the model, configuration, applicable edition and pass criteria.
| Official Reference | Relevant Scope | Claim Boundary |
|---|---|---|
| ITU-T G.657 (08/2024) | Bending-loss-insensitive single-mode optical fiber and cable; includes G.657.A1 and A2. | Supports fiber-category selection. It does not certify the finished rack assembly. |
| ITU-T G.652 (08/2024) | Geometrical, mechanical and transmission attributes of single-mode optical fiber and cable. | Supports the network-fiber specification, not chassis fit or terminated splitter performance. |
| IEC 60875-1:2024 | Generic requirements for passive, non-wavelength-selective fiber optic branching devices. | Use the relevant product and performance specification to establish actual acceptance limits. |
| IEC 61753-031-2:2014 | Non-connectorized single-mode 1×N and 2×N branching devices for Category C controlled environments. | A connectorized rack assembly needs complete-assembly evidence; the component scope is not blanket chassis certification. |
| IEC 61753-031-6:2014 | Non-connectorized single-mode branching devices for Category O uncontrolled environments. | Do not use this reference to claim that a rack chassis is weatherproof or suitable for exposed outdoor mounting. |
| IEC 61300-3-4:2012 | Methods for measuring attenuation of optical components. | The purchase specification must still define the method, wavelength, reference and pass limit. |
| IEC 61300-3-6:2008 | Procedures for measuring return loss of a fiber optic device under test. | Do not substitute a connector-polish assumption for a measured complete-assembly result. |
| IEC 61300-3-35:2022 | Inspection and classification of connector end-face debris, scratches and defects. | IEC states that visual inspection is additional to, not a replacement for, attenuation and return-loss measurement. |
Evidence and responsibility
What BWNFiber reviews and what the project approves
| BWNFiber Project Review | Project Owner / Engineer Approval | Evidence to Retain |
|---|---|---|
| Compare the requested split ratio, interfaces, port map, rack envelope and document list with a proposed configuration. | Approve the PON topology, GPON or XGS-PON loss budget, engineering margin and applicable customer specification. | Approved BOM, topology or loss-budget sheet and model datasheet. |
| Review connector family, polish, label sequence, dimensional drawing and project-specific options before quotation. | Approve the cabinet environment, rack compatibility, site access, local code and destination-market documents. | Signed dimensional drawing, port map and interface schedule. |
| Clarify which test records and compliance documents can be supplied for the quoted model. | Set the required standard editions, test methods, sampling or per-path testing and acceptance limits. | Configuration-linked test report and exact-model compliance evidence, where required. |
Claim boundary: Category-level information cannot establish certification, fiber grade, weather protection or optical performance for every split ratio. The purchase order should reference the quoted model and its approved evidence package.
BWNFiber rack-fit review
Match the rack. Close the budget. Bind the evidence.
For FTTH, ISP, central-office and protected-cabinet projects, BWNFiber can compare the requested configuration with published model information and the buyer's project documents. Put custom labels, OEM identification, batch packaging, export documents, samples and test-record requirements in the RFQ. The quotation must state which items are available for that model.
The service checks specification alignment. Network engineering, local compliance and site acceptance remain with the project team.
Start a Configuration Review Applications
Where rack mounted PLC splitters fit
A rack chassis suits sites that need organized front-panel access and already provide the required rack space and environmental protection. Approval checks change with the host location.
Central office and headend racks
Reserve the rack units and service clearance, then align the port labels and patch-cord route with the ODF or adjacent equipment. Calculate the loss budget from each input to every served branch.
FTTx distribution cabinets
Use the rack splitter only inside a cabinet or shelter designed for the environment. Check sealing, temperature control, cable entry and door clearance before approving the chassis.
CATV and data communication racks
Set the operating wavelength, split plan, connector interface and path-loss limits for the actual network. A PON-labelled configuration does not automatically fit another optical design.
FAQ
Rack mounted PLC splitter questions
What is a rack mounted PLC splitter?
It is a passive optical power splitter housed in a rack chassis with front-panel interfaces. The chassis organizes mounting, port access and labeling; the PLC device inside divides one or two optical inputs among multiple outputs.
What is the difference between a rack mounted PLC splitter and an LGX insertion module?
A rack mounted splitter includes its own chassis, front panel and mounting ears. An LGX module is a plug-in unit that needs a compatible shelf or enclosure. Match the format to the host hardware.
Is a rack mounted PLC splitter the same as a fiber patch panel?
No. A PLC splitter intentionally divides optical power. A patch panel terminates, organizes or cross-connects fibers. A rack may need both functions, but they should appear as separate BOM items.
Which rack width and height should be specified?
State rack width, usable rack-unit height, maximum chassis depth, mounting-hole pattern and front/rear clearance. A 19-inch or 1U label does not confirm depth, rail position or service access.
Which 1×N and 2×N rack mounted configurations are available?
Referenced BWNFiber models include 1 x 16, 1 x 32 and 1 x 64, and the category covers 1×N and 2×N options. Availability, chassis layout and optical limits must be quoted for the requested configuration.
How should front-panel ports be planned?
Define every input and output port, adapter orientation, label sequence, reserved positions and patch-cord exit direction. Check connector access and door clearance so technicians can clean, inspect and reconnect ports without disturbing adjacent fibers.
Should I choose APC or UPC rack-mounted splitter ports?
Use the connector polish defined by the network and mating patch cords. APC and UPC interfaces must not be physically mixed. State the connector family, polish, input and output quantities and front-panel labeling in the order specification.
What affects rack mounted PLC splitter price and lead time?
Split count, chassis layout, adapter and polish choices, labels, test-document requirements, quantity and schedule can all change the quotation. Freeze these inputs before comparing suppliers or delivery dates.
Which optical specifications should be checked for a rack mounted splitter?
Verify insertion loss for every path, channel uniformity, polarization-dependent loss, return loss, directivity, operating wavelength and temperature for the exact model. Connectorized assemblies require acceptance limits for the complete terminated configuration.
Is OTDR testing enough to accept a rack mounted PLC splitter?
No. OTDR is useful for installed-route event location and troubleshooting, but it does not replace direct per-path insertion-loss testing or the specified return-loss method. Record the test wavelengths, reference method and pass limits before testing.
Should the splitter use G.652.D or G.657.A fiber?
Match the assembly fiber to the network specification and the cabinet routing. G.657.A1 or A2 can reduce macrobending sensitivity in compact routing, while G.652.D remains a common single-mode network specification. Require the exact subcategory and assembly bend limits on the datasheet.
Can a rack mounted PLC splitter be installed outdoors?
Only when installed inside a cabinet or shelter approved for the outdoor environment. A rack chassis should not be treated as a standalone weatherproof enclosure; verify the host cabinet rating, sealing, temperature control and cable entry protection.
What technical documents should be checked before approval?
Check the model datasheet, dimensional drawing, port map, optical test limits and any compliance evidence named by the project. A category page cannot establish the same dimensions, performance or qualification for every model.
What information is needed for a rack mounted PLC splitter quotation?
Send the 1×N or 2×N configuration, rack width and height, chassis depth, port map, connector and polish, optical limits, labels, cabinet environment, quantity and schedule. Include a PON budget, BOM or reference model when available.
How should rack mounted PLC splitter quotations be compared?
Normalize the split topology, connectorized loss boundary, rack dimensions, interfaces, test records, documents, accessories and delivery scope first. A lower headline price is not comparable when any of those fields differ or remain unstated.
Can I request a sample, custom labels or OEM identification?
Include the sample purpose, exact configuration, label content, artwork or identification requirement and target quantity in the RFQ. BWNFiber should confirm feasibility, scope, cost and schedule for the quoted model before any capability is treated as approved.
What does BWNFiber review before quotation?
BWNFiber can compare the requested split ratio, rack envelope, interfaces, port map, documents and project options with a proposed configuration. The project engineer must still approve the PON budget, site environment, local requirements and final acceptance criteria.
Quotation input
Send the BOM before the rack splitter is approved
BWNFiber can review the PON budget, cabinet drawing, port plan, quantity and schedule against a proposed model. Resolve any dimensional, interface or document gap before the purchase order is released.
Send Your BOM and Request a Quote