Español
Português
لالعربية
Русский
Bahasa Indonesia
Français
Türkçe
Bahasa Melayu
GJFJV Indoor Fiber Optic Cable – Tight-Buffered, Aramid Yarn, LSZH/PVC Jacket
Superior Flame Retardancy: Complies with industry standards for enhanced safety.
Excellent Temperature Resistance: Ensures stable performance across varying conditions.
Flexible & Easy to Strip: Simplifies installation and maintenance.
High-Strength Kevlar Reinforcement: Enhances durability and tensile strength.
Compact Bend Radius: Enables easy routing in tight spaces.
Customizable Solutions: Tailored to meet diverse market and client requirements.
what is gjfjv indoor fiber optic cable
GJFJV is a tight-buffered indoor fiber optic cable designed for data centers, building backbone cabling, equipment rooms, FTTx and patch cord applications. It uses 600 μm or 900 μm tight-buffered fibers with aramid yarn reinforcement and a flame-retardant PVC outer jacket for flexibility, tensile strength and easy termination.
OS2 single-mode and OM3/OM4 multimode fiber options are available to support Gigabit, 10G, 25G and 40G indoor network links. LSZH jacket options can also be supplied according to project requirements.
GJFJV Indoor Fiber Optic Cable Specification parameters
- Specification parameters
- OPTICAL CHARACTERISTICS
| Number of cores | Optical cable outer diameter (mm) | Cable weight (kg) | Allow stretching (N) | Flattening force (N/100mm) | Bending radius (mm) | Applicable temperature (°C) | |||
|---|---|---|---|---|---|---|---|---|---|
| Short term | Long term | Short term | Long term | Short term | Long term | ||||
| 02 | 3.4 | 15.00 | 600 | 200 | 1000 | 200 | 20D | 10D | -20 ~ +60 |
| 04 | 4.0 | 22.00 | 600 | 200 | 1000 | 200 | 20D | 10D | -20 ~ +60 |
| 06 | 4.0 | 23.00 | 600 | 200 | 1000 | 200 | 20D | 10D | -20 ~ +60 |
| 08 | 5.0 | 27.00 | 600 | 200 | 1000 | 200 | 20D | 10D | -20 ~ +60 |
| 10 | 5.5 | 30.00 | 600 | 200 | 1000 | 200 | 20D | 10D | -20 ~ +60 |
| 12 | 6.0 | 35.00 | 600 | 200 | 1000 | 200 | 20D | 10D | -20 ~ +60 |
Product Structure & Composition
Ghigh-Quality Aramid Yamint bresplertartings
LSZH Outer Sheath
Grade ARibt mnleceratiomRaltintede delats
Rleewed Ictaltete loncerationRostecler and puiiscans
Benefits of GJFJV Indoor Fiber Optic Cable
Flame Retardancy & Temperature Resistance
Complies with industry safety standards for superior flame retardancy and maintains stable performance across varying temperature conditions.
Flexibility, Easy Stripping & Compact Bend Radius
Highly flexible and easy to strip, simplifying installation and maintenance, while the compact bend radius enables convenient routing in tight spaces.
High-Strength Kevlar Reinforcement
Enhanced with high-strength Kevlar yarn, providing excellent tensile strength and mechanical durability for long-term reliability.
Customizable & Versatile Solutions
Supports customizable jacket materials (PVC, LSZH) and configurations to meet diverse client requirements and indoor communication scenarios.
Engineering Applications GJFJV Indoor Fiber Optic Cable
Data Center & High‑Density Backbone Cabling
GJFJV cables are widely used as indoor backbone cabling in data centers, connecting distribution frames, top‑of‑rack switches, and storage equipment. The tight‑buffered design with 900µm fibers and aramid yarn reinforcement ensures excellent flexibility and strippability, allowing direct termination to patch panels without fan‑out kits. With flame‑retardant LSZH or PVC jackets meeting riser and plenum fire safety ratings, the cable is fully compliant with strict codes for raised‑floor environments and equipment aisles. It supports high‑capacity data transmission across OS2 single‑mode and OM3/OM4 multimode fibers, making it ideal for 10G, 25G, and 40G backbone links within large‑scale data centers.
Building Riser, Plenum & Intra‑Floor Distribution
For vertical cabling within multi‑story buildings, GJFJV cables are installed in risers, plenum spaces, inter‑floor conduits, and cable trays. The small outer diameter (from 2.0mm simplex to 6.8mm for 12‑core designs) reduces conduit congestion and simplifies pulling through tight pathways. The cable structure withstands long‑term tensile loads of up to 80‑130N and short‑term crush resistance of 500‑1000N/100mm, ensuring reliable performance even under mechanical stress during installation. Available in riser‑rated and plenum‑rated versions, it is suitable for IDF/MDF rooms, telecom closets, and campus building interconnections without requiring expensive transition hardware between different cable types.
FTTx & Fiber‑to‑the‑Desk (FTTD) Deployments
GJFJV cables serve as efficient indoor drop cables in FTTB, FTTH, and Fiber‑to‑the‑Desk architectures. The cable runs from building entry points to individual workstations, enterprise offices, and residential units, delivering high‑bandwidth connectivity directly to end‑users. With excellent bend radius performance (20D dynamic, 10D static) and superior strippability, the cable can be quickly terminated to LC/SC/MPO connectors on site, eliminating the need for transition connector boxes and reducing overall installation costs. The availability of bend‑insensitive fiber further supports small‑radius routing in confined furniture pathways and corner installations.
Communication Equipment Room & ODF Interconnection
In central offices and telecommunication equipment rooms, GJFJV cables provide direct optical connections between communication devices such as routers, switches, transceivers, and optical distribution frames. The tight‑buffered construction protects fibers during repeated handling in patching areas, while the cable's flexibility allows neat routing within crowded cable management trays and ODF cassettes. No gel cleaning is required prior to termination, simplifying field work and reducing maintenance time. With operating temperatures ranging from -20°C to +60°C, the cable maintains stable transmission performance even in equipment rooms with variable thermal loads. This makes it a reliable choice for intra‑facility fiber patching and cross‑connect applications.
Engineered with 900µm tight‑buffered fibers, aramid yarn strength members, and PVC/LSZH jackets, the GJFJV indoor cable combines flexibility, fire safety, and easy termination. Its compact dimensions, fire safety compliance, and support for both single‑mode and multimode fiber types make it a versatile solution for data centers, building backbones, FTTx deployments, and patch cord manufacturing.
Shipping & Packaging
Packaging Details
Each roll contains 1–5 KM of cable, typically packed in steel drums. Customized packaging solutions are available upon client request.
Sheath Marking
White hot foil indentation is applied at 1-meter intervals with the following information:
a. Supplier name: Guanglian (or as specified by the customer)
b. Standard code including product type, fiber type, and fiber count
c. Year of manufacture (valid for 7 years)
d. Length indication in meters
Port of Shipment
Available ports: Qingdao, Guangzhou, Shenzhen
Estimated Lead Time
| Quantity (KM) | Estimated Delivery Time |
|---|---|
| 1–300 | Approx. 15 days |
| ≥300 | Delivery time to be negotiated |
Note
The packaging details above are for reference only. Final packing size and weight will be confirmed before shipment.
Product Comparison：
GJFJV vs GJFJH vs GJFJBV
| Feature / Dimension | GJFJV (PVC Jacket, Indoor Distribution) | GJFJH (LSZH Jacket, Indoor Distribution) | GJFJBV (Duplex Flat Cable) |
|---|---|---|---|
| Structural Features | Tight-buffered 900μm or 600μm fibers (single‑mode or multi‑mode) [7†L4-L5]. Aramid yarn strength member layer [6†L4-L6]. PVC outer sheath [7†L5-L6]. Non‑metallic construction. | Same internal construction as GJFJV: tight-buffered fibers with aramid yarn strength member [4†L20-L22]. LSZH outer sheath instead of PVC. The “H” in GJFJH stands for LSZH (Low Smoke Zero Halogen) [1†L11-L12]. Non‑metallic construction. | Two 900μm or 600μm tight-buffered fibers, each with an inner PVC sheath, covered with aramid yarns, extruded with a flat PVC or LSZH outer sheath [2†L5-L7]. “Figure‑8” cross‑section or flat duplex structure [13†L6-L7]. |
| Strength Member | Aramid yarns applied evenly over each tight‑buffered fiber or over the bundle [6†L4-L6]. High tensile strength, flexibility. | Aramid yarns (same as GJFJV). Provides excellent tensile performance and bend protection. | Aramid yarns wrapped around each tight‑buffered fiber unit, plus additional aramid in the outer sheath [12†L10-L11]. Dual-layer reinforcement. |
| Outer Sheath Material | PVC (Polyvinyl Chloride) – flame‑retardant but releases dense smoke and halogen gases when burned [1†L17-L18]. Standard UL OFNR/OFNP rated [6†L18-L19]. | LSZH (Low Smoke Zero Halogen) – flame‑retardant, low smoke emission, halogen‑free, self‑extinguishing [1†L11-L12]. Suitable for fire‑sensitive areas. | PVC (standard) or LSZH (on request). Flat outer sheath, available in both materials [13†L5-L7]. |
| Fiber Core Capacity | 2 – 144 cores, up to 288 cores with micro‑distribution design [9†L3-L4]. 2 – 24 cores typical for standard bundle designs [6†L6-L7]. | 2 – 144 cores, same core count range as GJFJV [9†L3-L4]. | 2 cores (duplex) – purpose‑built for patch cords and jumper assemblies [12†L13-L14]. |
| Typical Applications | Indoor distribution backbone, building riser and plenum cabling, equipment room patching, entrance facilities, FTTB (Fiber‑to‑the‑Building) [6†L12-L13]. Also used for pigtail/jumper assemblies [3†L30-L31]. | Same applications as GJFJV, but specifically required for fire‑rated environments: buildings with strict fire safety codes, public spaces, tunnels, data centers, high‑rise risers. The “H” (LSZH) is mandatory when low smoke and halogen‑free properties are specified by code. | Duplex optical fiber connecting jumpers or pigtails, indoor riser level and vertical cabling, interconnection between instruments and communication equipment [12†L13-L15]. Also used for desktop fiber connections (FTTD – Fiber‑to‑the‑Desktop). |
| Engineering Pros | ① Lower cost than LSZH – PVC jacket most economical indoor distribution option [3†L15-L17]; ② Good flame‑retardancy (UL OFNR/OFNP rated) [6†L18-L19]; ③ Excellent strippability – tight‑buffered fibers allow direct connector termination without messy gel cleanup [6†L14-L15]; ④ Wide core count range (2–144 cores) suitable for building backbone; ⑤ Non‑metallic – no EMI concerns, no grounding required; ⑥ Lightweight, small diameter, flexible for duct/tray installation [6†L14]. | ① LSZH jacket – low smoke, halogen‑free, self‑extinguishing – safe for fire‑sensitive spaces, meets strict building codes for plenum/riser [1†L23-L24]; ② Same excellent strippability as GJFJV – tight‑buffered fibers allow direct termination [4†L13-L14]; ③ Non‑metallic – no grounding required; ④ Good tensile performance from aramid yarn reinforcement; ⑤ All‑dry design – no gel, clean handling [4†L13-L14]. | ① Compact flat structure – fibres arranged in parallel, easy to route in tight spaces [12†L11-L12]; ② Very low cost for 2‑core applications, economical for short‑distance connections; ③ Good flame‑retardant performance (PVC or LSZH) [13†L12-L13]; ④ Excellent flexibility and strippability – individual fibers easily accessed for connector termination [12†L9-L10]; ⑤ Low weight, easy to handle for patch cord manufacturing [12†L16-L18]. |
| Engineering Cons | ① PVC sheath emits dense smoke and toxic halogen gases when burned – not suitable for fire‑sensitive public spaces, high‑rise buildings, tunnels, or data centers where LSZH is required [1†L17-L18]; ② Lower UV resistance than LSZH for mixed indoor/outdoor use (not intended for outdoor exposure); ③ Higher smoke emission in fire event compared to LSZH. | ① Higher cost than PVC (GJFJV) due to LSZH material and stricter manufacturing [3†L15-L17]; ② LSZH sheath slightly less flexible than PVC in cold environments; ③ Lower UV resistance than PE – not rated for outdoor UV exposure without additional protection; ④ Requires careful compliance verification for building code approval (LSZH often mandated). | ① Limited to 2 cores – not suitable for building backbone or multi‑core distribution [12†L13-L14]; ② Flat shape less suited for bundled installations in conduits or cable trays (higher pulling resistance than round cables) [13†L15-L16]; ③ Lower tensile strength (100–200N) than GJFJV/GJFJH distribution cables [12†L18]; ④ Larger bend radius (60/30mm) than round cables, less flexible for tight corner routing [12†L18]; ⑤ PVC jacket not flame‑retardant to LSZH level – may not meet strict fire codes for riser/plenum spaces. |
| Flame Retardancy | UL OFNR/OFNP rated – flame‑retardant, but halogen‑emitting. Suitable for riser and plenum spaces where halogen emission is not prohibited by code [6†L18-L19]. | LSZH – low smoke, halogen‑free, self‑extinguishing. Meets IEC 60754‑2 for low halogen emission, IEC 61034 for low smoke [1†L23-L24]. Mandatory for fire‑sensitive public spaces, high‑rise buildings, tunnels, data centers. | PVC flame‑retardant (UL94 V‑0); LSZH variant available – low smoke, halogen‑free upon request [13†L5-L7]. |
| All‑Dielectric (Non‑Metallic) | Yes – no metal components, immune to EMI, no grounding required. | Yes – no metal components, immune to EMI, no grounding required. | Yes – no metal components (unless specified otherwise). |
GJFJV Indoor Fiber Optic Cable Selection Guide
Fire‑retardancy and building code compliance:
For indoor cabling installations, GJFJH (LSZH) is the mandated choice for fire‑sensitive public spaces, high‑rise building risers, tunnels, data centers, hospitals, schools, and any occupied space where building codes require low smoke and halogen‑free properties. LSZH sheathing emits minimal smoke and no halogen gases when burned, ensuring personnel safety and equipment protection in confined spaces.
GJFJV (PVC) is suitable for general indoor environments where fire codes permit PVC, such as equipment rooms (MDF/IDF) with adequate fire suppression, industrial facilities, and low‑occupancy spaces. PVC is flame‑retardant (UL OFNR/OFNP rated) but produces dense smoke and toxic halogen gases during combustion. Lower material cost makes GJFJV attractive for non‑fire‑rated areas.
Fiber core count and application type:
Both GJFJV and GJFJH support a wide core count range (2–144 cores), making them suitable for building backbone distribution. Their tight‑buffered construction allows direct termination to connectors without messy gel cleanup – a significant labour‑saving advantage over loose tube indoor cables.
GJFJBV is limited to 2‑core applications only . It is purpose‑built for patch cords, pigtails, desktop fiber connections (FTTD), and short jumper runs between instruments and communication equipment . Not suitable for backbone or multi‑core distribution.
| Requirement | Recommended Cable |
|---|---|
| Building backbone / riser, fire‑sensitive area (LSZH required) | GJFJH (LSZH jacket) |
| Building backbone / riser, general area without LSZH mandate | GJFJV (PVC jacket) |
| Patch cord, pigtail, equipment jumper, 2‑core desktop connection | GJFJBV (duplex flat) |
Cost‑performance summary:
GJFJV offers the lowest cost for multi‑core (2–144 core) indoor distribution where PVC is permitted. Its UL OFNR/OFNP rating satisfies basic flame‑retardancy requirements for riser/plenum spaces in many jurisdictions .
GJFJH carries a cost premium over GJFJV due to LSZH material, but is mandatory for fire‑rated spaces. The premium is justified by compliance with strict building codes and reduced life‑safety risk in occupied areas .
GJFJBV is the most economical 2‑core indoor cable for patch cords and equipment jumpers. Its low weight (13.8 kg/km) and compact dimensions make it ideal for high‑density patching fields, though its larger bend radius and lower tensile strength limit its use to short, low‑stress connections .
Installation ease and routing constraints:
For building riser and horizontal cabling requiring a balance of cost, core count, and ease of termination, GJFJV offers the most economical solution where fire codes permit PVC. For the same applications requiring fire‑rated LSZH, GJFJH is the correct choice despite the higher material cost [3†L15-L17].
For patch cord assemblies and equipment‑to‑instrument jumpers requiring 2‑core simplex or duplex connections, GJFJBV is the best choice. Its flat structure allows compact fibre arrangement, but its larger bend radius (60/30mm) and lower tensile strength (100–200N) make it unsuitable for backbone pulling [12†L18].
For installations with tight bend radius requirements, round distribution cables (GJFJV/GJFJH) offer superior flexibility (20D dynamic/10D static) compared to flat duplex cables [6†L25].
Download YRTFIBER Product Catalog
Factory Real Shot
Automated Packaging & Shipping Lines
High-speed automatic coiling, banding, and cartoning lines reduce lead times and ensure consistent, damage‑free delivery to global customers.
Buffer Stock & Spare Parts Warehouse
A dedicated inventory area for loose tubes, aramid yarn, and LSZH compounds guarantees uninterrupted production and rapid response to urgent orders.
High‑Volume Production Capacity
Multiple parallel sheathing lines and stranding towers operate 24/7, enabling monthly output of over 2,0000 km of GJYWFJH and similar cables.
Advanced Manufacturing Lines
Our factory is equipped with fully automated optical fiber coloring, loose tube extrusion, stranding, and double-sheathing lines.
Frequently Asked Questions & Quick Inquiry
GJFJV Indoor Fiber Optic Cable FAQ
Q: What types of fiber does the GJFVJ series include?
A: Available in OM3/OM4 multimode and OS2 singlemode versions.
Q: What's the fire rating of GJFVJ cables?
A: Features LSZH (Low Smoke Zero Halogen) flame-retardant jacket.
Q: Does it support 10G networks?
A: Yes, OM4 supports 10G up to 150m transmission.
Q: What's the minimum bend radius?
A: 7.5mm (static)/15mm (dynamic) with bend-insensitive design.
Q: Can connectors be customized?
A: Supports LC/SC/FC connectors with UPC/APC polish options.
Send Your Inquiry
Fill out the form below and we'll get back to you within 24 hours.
