Best Fiber Optic Splice Trays for Clean, Reliable Fiber Splicing
Finding the right fiber optic splice tray is essential for organizing splices, protecting delicate fibers, and ensuring long-term performance in cabinets, distribution panels, or field deployments. This guide highlights five well-suited options, with a focus on capacity, ease of use, and compatibility for common fiber counts. Whether you’re assembling a small home run or a larger network backbone, these trays help keep splices organized and secure. The top picks are best for technicians seeking durable, compact, and ready-to-install solutions tailored to different core counts and containment styles.
Summary table of selected products
| Product | Best For | Capacity | Notes |
|---|---|---|---|
| ofcn-013A 12 cores Fiber Optic Splice Tray | General-purpose cabinet installs | 12 cores | Compact tray for mid-size fiber counts |
| ofcn-014c 12 cores Fiber Optic Splice Tray | Budget-friendly 12-core setups | 12 cores | Value-focused option |
| Corning M67-048 Splice Tray, 12 Fiber Heat Shrink Fusion Splices | Heat-shrink fusion splices in 12-fiber packs | 12 fibers | Brand-name option |
| 2pcs 6 cores Fiber Optic Splice Tray | Panel-ready, smaller counts | 12 cores total (6 per tray) | Economical two-pack |
| Corning M67-078 Splice Tray, 24-Fiber Heat Shrink Fusion Splices | Higher-capacity needs | 24 fibers | Wide, larger capacity |
ofcn-013A 12 cores Fiber Optic Splice Tray
The OFCN OFCN-013A is a compact, 12-core splice tray designed for standard cabinet installations. Best for technicians handling mid-sized fiber runs who need straightforward organization without extra frills. The tray consolidates 12 cores in a single area, helping reduce clutter in crowded enclosures. A potential limitation is that it may not include advanced cable management features found in premium models, so plan accordingly if higher-density routing is required.
ofcn-014c 12 cores Fiber Optic Splice Tray
The OFCN-014c offers a budget-friendly 12-core solution suitable for standard fiber networks. It’s a practical choice for technicians who need dependable splicing without paying for premium features. Best for cost-conscious projects or quick deployments where capacity is fixed at 12 cores. A caveat is that fewer built-in accessories may require additional components to achieve the same level of routing or strain relief as higher-end trays.
Corning M67-048 Splice Tray, 12 Fiber Heat Shrink Fusion Splices
The Corning M67-048 is a trusted option that accommodates 12 heat-shrink fusion splices. It’s best for environments where fusion splices are common and where brand reliability matters. The tray’s design supports robust splice protection and straightforward handling. Best for mid-range deployments, but it may be less flexible for unconventional fiber counts beyond 12 cores.
2pcs 6 cores Fiber Optic Splice Tray
This two-pack provides 12 cores across two trays, making it a practical pick for setups requiring two separate modules or staged installations. Best for small to medium projects that benefit from modular, side-by-side tray options. A limitation is that the two-tray bundle might not include advanced mounting features found in premium trays, so ensure compatibility with your enclosure.
Corning M67-078 Splice Tray, 24-Fiber Heat Shrink Fusion Splices
The Corning M67-078 expands capacity to 24 fibers with heat-shrink fusion splices, making it suitable for higher-density installations or future growth. Best for data centers or telecom cabinets needing a larger tray without multiple units. A potential drawback is its larger footprint, which may not fit compact enclosures as easily as smaller trays.
Buying Guide: Key Considerations for Fiber Optic Splice Trays
What capacity do you need?
Choose trays based on the number of cores you expect to splice. If you anticipate growth, consider mid-range trays with room to add splices later, or a larger-capacity tray to avoid frequent swaps.
What type of splices will you use?
Heat-shrink fusion splices require trays compatible with fusion splices and corresponding heat-shrink materials. If you primarily rely on mechanical splices, ensure the tray accommodates those connectors and structures.
What enclosure or cabinet will house the tray?
Check the tray’s dimensions and mounting style to ensure it fits your enclosure’s depth, width, and mounting rails. Some trays are designed for standardized 19-inch racks, while others fit smaller cabinets.
Is durability a priority?
Durable materials and secure latching or cover features protect splices from dust, moisture, and physical impact. For harsh environments, select trays with robust housings and reliable strain relief options.
Do you need modularity or bulk options?
Two-tray or multi-pack offerings can reduce installation time and simplify future expansions. Consider whether you prefer modular components that can be swapped or expanded over time.
How important is brand reliability?
Brand-name trays often provide consistent geometry and proven performance with standard accessories. If you expect serviceability or easy sourcing of parts, a familiar brand can help with long-term maintenance.
What are the safety and handling considerations?
Handle splices with care to avoid fiber damage. Use appropriate protective equipment and follow enclosure guidelines to prevent contamination and bending of fibers during installation.
Frequently Asked Questions
What is a fiber optic splice tray used for?
It organizes and protects splice points, keeps fibers orderly, and provides a stable mounting surface inside enclosures or cabinets.
Can I mix different core counts in the same tray?
Most trays are designed for a specific capacity. Mixing counts is possible only if the tray’s internal layout supports the arrangement without compromising protection.
Are heat-shrink fusion splices compatible with all trays?
Not all trays accommodate fusion splices. Verify tray compatibility with fusion splicing materials and the intended splice type before purchase.
How do I choose between a 12-core and a 24-core tray?
Consider current needs and future growth. A 24-core tray is better for high-density deployments or anticipated expansion, while a 12-core tray suits smaller, simpler installations.