FEICHUN CABLEPNCT-RFFLAT REELING CABLE4C × 185 mm²0.6/1 kVRUBBER FLEXIBLE CABLECRANE / FESTOON DUTYRFQ ENGINEERING GUIDE
FLAT REELING CABLE PNCT-RF 4C 185SQ 0.6/1KV — construction logic, flat-reel mechanics and procurement engineering
The supplied string identifies a flat PNCT-RF reeling cable with four cores, a nominal 185 mm² cross-section and a 0.6/1 kV voltage designation. In normal engineering notation this is read as PNCT-RF flat reeling cable — 4C × 185 mm² — 0.6/1 kV, subject to confirmation that 185SQ means 185 mm² per core. This guide explains how to specify, install and qualify the cable without inventing the missing dynamic ratings. Public manufacturers describe PNCT-RF as a flat reeling/festoon family; the exact Feichun construction must still be released against the machine duty.
Procurement identity
4C × 185
Normalised reading of the supplied 4C 185SQ designation; confirm the per-core interpretation.
Voltage class
0.6/1 kV
Low-voltage designation supplied by the purchaser.
Mechanical format
FLAT RF
Flat reeling/festoon family; preferred bending plane is a design input.
Release discipline
TBC
OD, mass, ampacity, radius, speed, tensile load and tests require the exact drawing.
Contents
- Engineering position
- How to read the buyer string
- What the public evidence supports
- Reference construction and cross-section
- Exact target specification boundary
- PNCT-RF versus screened variants
- Electrical and thermal design
- Flat-reel mechanics
- Application scenes
- Installation and failure-mode controls
- Feichun functional equivalent
- Certificates and documentation
- RFQ release checklist
- Source audit
1. Engineering position: a flat cable is a motion component
PNCT-RF 4C × 185 mm² is not simply a fixed PNCT cable drawn as a rectangle. In a reel, festoon or moving transfer machine, every operating cycle changes the cable curvature, contact pressure and tensile distribution. The conductor stranding, core lay, reinforcement, rubber compound, flat envelope, guide entry, end restraint and reel diameter must be designed together.
Electrical duty
Four 185 mm² cores can carry substantial low-voltage power, but the permissible current depends on the released conductor resistance, ambient temperature, grouping, air movement, duty cycle, reel layer build-up and termination temperature.
Four 185 mm² cores can carry substantial low-voltage power, but the permissible current depends on the released conductor resistance, ambient temperature, grouping, air movement, duty cycle, reel layer build-up and termination temperature.
Flex-fatigue duty
Repeated bending is governed by the smallest strand and the local neutral-axis movement, not by the nominal copper area alone. A fixed-installation class cannot be treated as a reeling qualification.
Repeated bending is governed by the smallest strand and the local neutral-axis movement, not by the nominal copper area alone. A fixed-installation class cannot be treated as a reeling qualification.
Flat-cable duty
The major and minor dimensions, preferred plane, edge pressure and anti-torsion behaviour matter. A round-cable bending rule is not an acceptable substitute for the PNCT-RF drawing.
The major and minor dimensions, preferred plane, edge pressure and anti-torsion behaviour matter. A round-cable bending rule is not an acceptable substitute for the PNCT-RF drawing.
Environmental duty
Rubber sheath selection must match oil, water, dust, UV, ozone, temperature, abrasion and possible chemical exposure. The exact PCP/CR compound is a product-variant question.
Rubber sheath selection must match oil, water, dust, UV, ozone, temperature, abrasion and possible chemical exposure. The exact PCP/CR compound is a product-variant question.
Evidence rule: the supplied procurement phrase provides identity, voltage and size only. This article does not assign an exact outer dimension, weight, current rating, tensile rating, minimum dynamic radius, travel speed, acceleration or flex-life value unless the exact 4C × 185 mm² PNCT-RF source releases it.
2. How to read the buyer string
| Raw field | Engineering reading | Quotation consequence | Evidence status |
|---|---|---|---|
| FLAT REELING CABLE | A cable intended to move through a reel, festoon or controlled guide path, with a flat cross-section. | Ask for travel direction, reel/festoon geometry, cycles, speed, acceleration and preferred bending plane. | User-supplied function |
| PNCT-RF | PNCT family nomenclature for the flat reeling/festoon variant in public Korean and manufacturer references. | Do not silently change it to PNCT(S)-RF/RFS; a screen changes EMC, bonding and termination design. | Family nomenclature |
| 4C | Four cores; the released schedule must state whether all four have the same nominal area and whether a PE/core identification convention applies. | Confirm core identification, conductor purpose, balance, paralleling and terminal arrangement. | User-supplied; interpretation to confirm |
| 185SQ | Common procurement shorthand for 185 mm². The normalised reading is 4C × 185 mm², but the buyer schedule controls. | Confirm 185 mm² per core, conductor resistance, strand class and any special compact/flexible design. | User-supplied; normalised reading |
| 0.6/1KV | Rated voltage convention U0/U = 0.6/1 kV for a low-voltage cable family. | Confirm system earthing, transient environment, accessories and the exact product/test standard. | User-supplied |
What the string does not tell us
It does not state conductor class, insulation thickness, sheath compound, screen, OD, mass, ampacity, voltage test, insulation resistance, dynamic radius, speed, acceleration, tensile load, travel length or cycle life.
It does not state conductor class, insulation thickness, sheath compound, screen, OD, mass, ampacity, voltage test, insulation resistance, dynamic radius, speed, acceleration, tensile load, travel length or cycle life.
Why the suffix matters
Public PNCT family pages distinguish a base flat PNCT-RF from screened variants such as PNCT(S)-RF or PNCT-RFS. The supplied string has no screen suffix, so a screen is not assumed.
Public PNCT family pages distinguish a base flat PNCT-RF from screened variants such as PNCT(S)-RF or PNCT-RFS. The supplied string has no screen suffix, so a screen is not assumed.
Why the voltage matters
0.6/1 kV is a low-voltage designation, not an automatic statement that the cable is suitable for every mining, shipboard, VFD or hazardous-area installation.
0.6/1 kV is a low-voltage designation, not an automatic statement that the cable is suitable for every mining, shipboard, VFD or hazardous-area installation.
Why 185 mm² matters mechanically
Large conductors make the cable heavy and stiff. The machine-side support, guide pressure and end termination deserve as much attention as the copper ampacity.
Large conductors make the cable heavy and stiff. The machine-side support, guide pressure and end termination deserve as much attention as the copper ampacity.
3. What public evidence supports — and what it does not
| Source / reference | What it contributes | How Feichun uses it | Boundary |
|---|---|---|---|
| TebaoFlex PNCT-RF family page | Public PNCT-RF / PNCT-RFS family construction and application context. | Tinned annealed copper, EPR/EP insulation, reinforcement layer, optional collective shield for the RFS variant and a rubber outer sheath are described at family level. | Public family source |
| YH Cable PNCT-R / PNCT-RF family page | Korean nomenclature and voltage context. | The public page distinguishes round PNCT-R, flat PNCT-RF and shielded flat PNCT(S)-RF; it also associates the low-voltage family with KS C IEC 60502-1 and 0.6/1 kV. | Public family source |
| Myoungin technical-data index | Nearby Korean procurement context. | The public index shows flat/reeling PNCT-related entries, including a nearby 185SQ multi-core configuration, but not the exact 4C × 185 mm² PNCT-RF row used here. | Context only |
| IEC 60502-1 | Low-voltage extruded-insulation standard context. | The IEC page describes 1 kV-class fixed-installation cable construction and test requirements; special dynamic service requires separate product evidence and is not created by citing the fixed-installation standard alone. | Standard boundary |
| IEC 60228 | Conductor cross-section and resistance framework. | Use the adopted edition and the released flexible-conductor construction to verify nominal area, resistance and conductor class. | Standard context |
| IEC 60332-1-2 | Flame-test method context. | The ordered cable needs its own current test evidence; a generic method reference is not a certificate or CPR classification. | Standard context |
Good engineering uses a source for the claim it actually supports. A public PNCT-RF family page can explain the construction logic; it cannot release the outer diameter or current rating of an unlisted 4C × 185 mm² design.
4. Reference family construction
Public PNCT-RF family information commonly describes tinned annealed copper conductors, EPR/EP rubber insulation, a yarn-braid or tape reinforcement layer and a rubber outer sheath. One public family page identifies PCP for its PNCT-RF construction, while Korean product-family pages use CR terminology for related PNCT constructions. That is a variant boundary, not a reason to guess the sheath compound for this order.
Figure 1. Engineering schematic only. The four core circles express the supplied 4C × 185 mm² identity; dimensions, lay, layer thickness and compound grades require the released Feichun drawing.
| Layer / feature | Family-level public context | Exact 4C × 185 mm² release requirement | Status |
|---|---|---|---|
| Conductor | Tinned annealed copper is described by public PNCT-RF family sources. | Nominal area per core, strand count, conductor class, compacting, DCR at 20°C and flexibility test. | Family context |
| Insulation | EPR / EP rubber insulation is described at family level. | Compound designation, thickness, colour/identification, insulation resistance and voltage test. | Family context |
| Reinforcement | Yarn braid or tape reinforcement may be used to share mechanical stress. | Material, coverage, tensile contribution, anti-torsion role and termination treatment. | Family context |
| Screen | Collective copper-wire braid is associated with screened RFS/PNCT(S)-RF variants. | Explicitly state screen absent/present, coverage, resistance, bond and EMC termination. | Not supplied for PNCT-RF |
| Outer sheath | Public family sources describe a rubber sheath; PCP and CR wording appears across variants. | Exact compound, nominal thickness, colour, oil/UV/ozone/abrasion evidence and marking. | Variant-dependent |
| Flat geometry | Flat type is part of the public PNCT-RF nomenclature. | Major/minor OD, edge radius, preferred plane, allowable twist and guide compatibility. | Family identity |
5. Exact target specification boundary
Important: no public technical table located for this article releases the exact PNCT-RF 4C × 185 mm² row. The following matrix preserves the buyer data and identifies the fields that Feichun must add to the quotation or approval drawing.
| Parameter | Value / interpretation | Engineering use | Evidence |
|---|---|---|---|
| Product identity | FLAT REELING CABLE PNCT-RF 4C 185SQ 0.6/1KV | Keep unchanged on RFQ, quotation, drawing and inspection documents. | Supplied verbatim |
| Normalised designation | PNCT-RF flat reeling cable — 4C × 185 mm² — 0.6/1 kV | Working description only; buyer schedule controls the final nomenclature. | Derived notation |
| Cable type | Flat reeling / festoon cable | Motion system, not a fixed-installation-only cable. | Supplied function / family context |
| Number of cores | 4 | Electrical balance, core identification and termination layout. | Supplied |
| Nominal conductor cross-section | 185SQ — interpreted as 185 mm² per core; confirm | Ampacity, voltage drop, fault current and mechanical mass calculations. | Supplied shorthand / confirmation required |
| Rated voltage U0/U | 0.6/1 kV | Coordinate system voltage, insulation, accessories and transient duty. | Supplied |
| Conductor material | Tinned annealed copper — public family context; exact target TBC | Corrosion interface, resistance, termination and flex-fatigue design. | Family context |
| Conductor flexibility | Not supplied | Must be released with strand class / special dynamic construction evidence. | Not public for exact row |
| Insulation | EPR / EP rubber — family context; exact compound TBC | Dielectric strength, temperature, flex-fatigue and environmental compatibility. | Family context |
| Screen | Not specified in PNCT-RF string | Do not assume a copper braid; confirm EMC/VFD requirements. | Not supplied |
| Sheath | Rubber family; PCP/CR variant to be confirmed | Abrasion, oil, ozone, water, UV, temperature and guide-contact design. | Family context |
| Outer diameter / flat major × minor dimensions | Not publicly verified for exact row | Reel barrel, guide opening, layer build-up, bend radius and shipping calculation. | Not supplied |
| Approximate mass | Not publicly verified for exact row | Reel torque, support load, transport and cable payout tension. | Not supplied |
| Continuous current rating | Not publicly verified for exact row | Thermal design using installation, grouping, duty cycle and conductor temperature. | Not supplied |
| Short-circuit rating | Not publicly verified for exact row | Protection clearing time, conductor I²t, screen/PE path and termination design. | Not supplied |
| Minimum dynamic bend radius | Not publicly verified for exact row | Reel, festoon, guide and commissioning method statement. | Not supplied |
| Travel speed / acceleration / cycle life | Not publicly verified for exact row | Dynamic qualification and expected service life. | Not supplied |
| Tensile load / end restraint | Not publicly verified for exact row | Strain-relief, clamp, support braid and termination design. | Not supplied |
| Fire / halogen / smoke classification | Not supplied | Select the required test and market declaration; do not infer LSZH or CPR class. | Not supplied |
6. PNCT-RF versus PNCT(S)-RF / RFS
For the supplied string, PNCT-RF is treated as the base flat variant. If the machine uses an inverter, high-speed switching, sensitive feedback or an EMC-controlled ship-to-shore environment, the buyer may actually need a screened construction. That must be written into the designation and termination schedule; it must not be added after the cable is manufactured.
Figure 2. Variant comparison. The unshielded and screened architectures affect electrical bonding, cable diameter, bend behaviour and accessory selection.
| Decision point | PNCT-RF base | PNCT(S)-RF / RFS screened option |
|---|---|---|
| Collective metallic screen | Not assumed from the supplied name. | May include copper-wire braid or another declared screen; exact construction must be released. |
| EMC / VFD use | Requires an application study; do not assume EMC performance. | More suitable only when screen coverage, transfer impedance, bond and termination are specified. |
| Mechanical effect | Usually simpler and potentially more flexible. | Screen adds mass, stiffness, minimum-radius and termination constraints. |
| RFQ wording | Quote exactly as PNCT-RF unless the buyer adds a screen requirement. | Quote the complete suffix and screen details; never substitute silently. |
7. Electrical and thermal design
Resistance and voltage drop
Use the released conductor resistance at 20°C, then correct it to operating temperature and include the actual loop length, power factor and terminal arrangement. A 185 mm² label alone is not enough to publish voltage drop.
Use the released conductor resistance at 20°C, then correct it to operating temperature and include the actual loop length, power factor and terminal arrangement. A 185 mm² label alone is not enough to publish voltage drop.
Ampacity on a reel
Thermal behaviour changes as layers build on the drum. Contact with adjacent turns, ambient air, reel material, duty cycle and dwell time can be more important than a single fixed-installation table.
Thermal behaviour changes as layers build on the drum. Contact with adjacent turns, ambient air, reel material, duty cycle and dwell time can be more important than a single fixed-installation table.
Four-core balance
Confirm whether the four cores are equal power cores, three phase conductors plus PE, or a mixed power/control arrangement. Current sharing and protective-conductor design follow that answer.
Confirm whether the four cores are equal power cores, three phase conductors plus PE, or a mixed power/control arrangement. Current sharing and protective-conductor design follow that answer.
Fault path
If no metallic screen is present, the protective-earth/core arrangement and termination continuity must be explicitly engineered. Do not treat a rubber reinforcement braid as an electrical earth.
If no metallic screen is present, the protective-earth/core arrangement and termination continuity must be explicitly engineered. Do not treat a rubber reinforcement braid as an electrical earth.
Thermal screening: Iallow = f(R20, θamb, θcond, grouping, reel-layer build-up, air movement, duty cycle, contact resistance, installation geometry)
Voltage drop: ΔU = I × L × (R(T) cosφ + X sinφ) — use the actual core arrangement and released AC data
Short circuit: I²t ≤ k²S² — only after the conductor material, temperature limits and clearing time are released
Mechanical screening: Rmachine ≥ Rmanufacturer; do not replace a flat-cable radius with a generic round-cable rule
Engineering conclusion: any published current value for this exact 4C × 185 mm² cable must state the installation condition. “Ampacity” without reel-layer, ambient, grouping and duty assumptions is not a usable procurement value.
8. Flat-reel mechanics
Figure 3. Flat-cable mechanical logic. The exact major/minor dimensions and minimum dynamic radius are intentionally left for the released product drawing.
| Mechanical input | Why it matters | RFQ question |
|---|---|---|
| Preferred bending plane | The flat section has directional stiffness; wrong-plane bending can concentrate edge stress and accelerate insulation/sheath fatigue. | In which plane does the cable bend on the reel or festoon? Can the path twist between stations? |
| Reel barrel and flange | Layer build-up changes effective radius, contact pressure, torque and heat dissipation. | Provide barrel diameter, flange diameter, cable length, layer count and winding direction. |
| Guide / roller geometry | Small misalignment can fold the flat cable, load one edge or force cross-axis curvature. | Provide roller width, radius, spacing, offset, edge protection and alignment tolerances. |
| Speed and acceleration | Dynamic tension and bending energy increase with acceleration and change of direction. | State maximum speed, acceleration, braking, start/stop frequency and duty cycle. |
| End restraint | The clamp must transfer machine force without crushing conductors or using the sheath as a lifting member. | Provide clamp length, support method, bend exit and terminal-entry geometry. |
| Environment | Oil, water, dust, UV, ozone, salt mist and temperature affect sheath life and friction. | Give chemical list, temperature range, outdoor exposure and cleaning method. |
9. Application scenes
Figure 4. Typical engineering contexts for a flat low-voltage reeling/festoon cable. The application illustration is not a claim that every PNCT-RF construction suits every scene.
Port crane and ship-to-shore equipment
Check salt mist, UV, wash-down, festoon trolley geometry, container-handling cycles, EMC requirements and cable support at the spreader or trolley.
Check salt mist, UV, wash-down, festoon trolley geometry, container-handling cycles, EMC requirements and cable support at the spreader or trolley.
Mining and mobile plant
Do not confuse a low-voltage PNCT-RF flat cable with a mining trailing cable. Verify impact, crushing, flame, oil, water, earthing and hazardous-area requirements.
Do not confuse a low-voltage PNCT-RF flat cable with a mining trailing cable. Verify impact, crushing, flame, oil, water, earthing and hazardous-area requirements.
Conveyor and transfer machine
Guide rollers, repeated starts/stops and dust ingress can dominate life. The cable should enter the moving section without edge folding or torsional wind-up.
Guide rollers, repeated starts/stops and dust ingress can dominate life. The cable should enter the moving section without edge folding or torsional wind-up.
Motorised reel
Match winding torque, cable mass, layer diameter, motor control, brake behaviour and spare-turn policy. The reel supplier and cable manufacturer should work from the same geometry.
Match winding torque, cable mass, layer diameter, motor control, brake behaviour and spare-turn policy. The reel supplier and cable manufacturer should work from the same geometry.
10. Installation and failure-mode controls
| Observed problem | Likely engineering mechanism | Preventive control |
|---|---|---|
| Longitudinal sheath split | Excessive edge pressure, abrasion, wrong compound, sharp guide or radius below the released dynamic limit. | Verify roller edges, preferred plane, sheath compound, radius and commissioning inspection. |
| Copper strand fatigue | Fixed-cable conductor class, excessive curvature, short unsupported exit or repeated reverse torsion. | Release the flexible conductor construction, bend path, end restraint and flex test evidence. |
| Flat cable rolls or twists | Guide misalignment, unequal reel layers, off-axis entry or no anti-torsion control. | Align guides, control winding direction and add a controlled transition to the terminal. |
| Overtemperature at full load | Ampacity copied from fixed installation, reel-layer thermal trapping, grouping or high ambient. | Run the installed thermal calculation and validate with temperature measurements. |
| EMC interference | Screen omitted, screen discontinuous or shield termination incorrect for the drive/system. | Decide PNCT-RF versus PNCT(S)-RF before manufacture and document the bond path. |
| Terminal pull-out | Cable weight or acceleration transferred through conductor strands or sheath instead of a support grip. | Use a designed clamp/support and preserve the manufacturer bend exit. |
| Water migration / environmental attack | Wrong sheath compound, damaged jacket, open end or incompatible cleaning chemical. | Confirm environmental compound and sealing/inspection method; do not infer from the PNCT name alone. |
Commissioning sequence: inspect the complete route with the machine stationary; verify the preferred plane and end restraint; rotate or travel slowly through the full stroke; check that the cable does not roll, scrape, pinch or cross over; then increase speed and load in controlled steps while recording temperature, current and abnormal noise.
11. Feichun functional equivalent engineering
Feichun Cable can manufacture a functionally equivalent PNCT-RF flat reeling cable for the confirmed electrical and mechanical duty. The equivalent should be developed from an independent construction drawing and manufacturing control plan: same required function and interface, but no copying of a third party’s proprietary drawing, protected marking or undocumented construction detail. Any patent or freedom-to-operate review remains a project/legal responsibility, while Feichun controls the independent design and evidence package.
| Feichun design stage | Deliverable | Why the purchaser needs it |
|---|---|---|
| 1. Duty capture | RFQ sheet with voltage, core function, current, length, travel, reel/festoon geometry, speed, acceleration, cycles, temperature and chemicals. | Prevents a nominally similar fixed cable from being quoted for the wrong machine. |
| 2. Construction selection | Conductor class, EPR/EP insulation, core lay, reinforcement, optional screen, sheath compound and flat dimensions. | Creates a controlled electrical/mechanical interface. |
| 3. Engineering release | Cross-section drawing, OD/major × minor dimensions, mass, radius, tensile/support method, current tables and marking plan. | Allows reel supplier, installer and purchaser to use the same numbers. |
| 4. Verification | Routine test plan plus agreed type/dynamic, material, environmental and fire evidence. | Separates factory acceptance from unverified marketing claims. |
| 5. Production traceability | Batch records, conductor resistance, insulation/sheath test results, dimensional inspection and final documentation. | Makes the delivered cable auditable after export and installation. |
Equivalent does not mean vague
A valid equivalent must match the electrical interface, mechanical envelope, installation method and evidence level required by the project. “Same size” is not an engineering equivalence.
A valid equivalent must match the electrical interface, mechanical envelope, installation method and evidence level required by the project. “Same size” is not an engineering equivalence.
Equivalent does not mean copied
Feichun can build from an independent design brief, selected materials and controlled tests while avoiding third-party brand marks, proprietary drawings and undocumented claims.
Feichun can build from an independent design brief, selected materials and controlled tests while avoiding third-party brand marks, proprietary drawings and undocumented claims.
Certificate scope follows the build
Certificates and declarations must identify the actual product construction, factory, market and applicable standard; they cannot be borrowed from a different cable family.
Certificates and declarations must identify the actual product construction, factory, market and applicable standard; they cannot be borrowed from a different cable family.
Accessory compatibility
Confirm cleats, clamps, glands, terminals, screen bonds if applicable and reel guides against the released major/minor dimensions.
Confirm cleats, clamps, glands, terminals, screen bonds if applicable and reel guides against the released major/minor dimensions.
12. Certificates and documentation
Feichun Cable supports certification-oriented export projects. Depending on the ordered construction and target market, the documentation package can be coordinated around ATEX, IECEx, VDE, CE, UKCA, EAC and the Russian Fire Safety Certificate requirements. The exact certificate, scope and marking must be confirmed for this PNCT-RF configuration; certification names are not a substitute for a product-specific certificate or declaration.
| Document / mark | Engineering question | Release rule |
|---|---|---|
| ATEX / IECEx | Is the cable part of equipment or an installation in a classified explosive atmosphere, and is the requested certificate scope applicable to the cable construction? | State zone, gas/dust group, temperature class, equipment boundary and certificate number/scope where applicable. |
| VDE / CE | Which product standard, harmonised standard, technical file or declaration supports the requested market access? | Match the declaration to the exact product, factory, construction and applicable EU requirements. |
| UKCA / EAC | Which UK or Eurasian conformity route, importer/market documentation and technical regulation apply? | Confirm current market route and document package before shipment. |
| Russian Fire Safety Certificate | Does the installation or tender require a Russian fire-safety document for this exact cable and application? | Confirm product scope, validity and language requirements; do not present a generic certificate as proof. |
| Factory technical file | Can the purchaser audit the construction, materials, routine tests, dimensional checks and batch traceability? | Provide the agreed inspection/test dossier with the shipment documentation. |
Certification caution: ATEX, IECEx, VDE, CE, UKCA, EAC and Russian Fire Safety Certificate requirements are market- and configuration-dependent. Feichun will confirm the applicable scope in the quotation and technical submittal instead of placing an unqualified logo on a generic page.
13. RFQ release checklist
Figure 5. RFQ sequence for a controlled Feichun equivalent. The exact dynamic parameters are release gates, not decorative catalogue fields.
| RFQ field | Minimum information to send Feichun | Reason |
|---|---|---|
| Cable identity | FLAT REELING CABLE PNCT-RF 4C 185SQ 0.6/1KV; preserve any suffix, drawing number or existing marking. | Avoids confusing PNCT-RF with PNCT(S)-RF/RFS, PNCT, mining trailing cable or another manufacturer’s code. |
| Core arrangement | 4 × 185 mm² confirmation, phase/PE/control function, colour or numbering, terminal schedule. | Controls electrical balance and termination. |
| Electrical duty | Continuous/peak current, voltage drop limit, fault current and clearing time, load factor, frequency and VFD/EMC details. | Enables conductor, insulation, screen and thermal design. |
| Motion duty | Reel or festoon, travel length, speed, acceleration, cycles/day, direction changes, torsion, minimum available radius and guide drawing. | Enables flex-fatigue and mechanical qualification. |
| Environment | Ambient range, water, salt, oil, chemicals, UV, ozone, dust, impact, installation altitude and cleaning process. | Selects sheath and test evidence. |
| Interface | Reel barrel/flange, guide/roller dimensions, clamp/grip, gland/terminal type, spare turns and installation method. | Prevents a mechanically incompatible cable release. |
| Documents | Required standard, fire class, CE/UKCA/EAC/VDE/ATEX/IECEx/Russian Fire Safety scope, inspection plan and language. | Defines the deliverable evidence before production. |
Useful RFQ sentence
Quote a Feichun independent functional equivalent to FLAT REELING CABLE PNCT-RF 4C 185SQ 0.6/1KV; confirm construction, screen status, major × minor dimensions, mass, current, minimum dynamic radius, tensile/support method and tests for the stated reel/festoon duty.Do not leave these blank
“Reeling cable”, “185SQ” and “0.6/1KV” do not define the radius, speed, acceleration, service life or current. Those fields are the difference between an engineering quotation and a size-only quotation.
“Reeling cable”, “185SQ” and “0.6/1KV” do not define the radius, speed, acceleration, service life or current. Those fields are the difference between an engineering quotation and a size-only quotation.
14. Engineering summary
Recommended reading of the request: a 4-core, nominal 185 mm²-per-core, 0.6/1 kV PNCT-RF flat reeling cable for controlled reel, festoon or transfer-machine service. The public evidence supports the flat PNCT-RF family concept and its distinction from screened variants. It does not release the exact target’s finished dimensions or dynamic ratings. Feichun should therefore quote from an independent drawing, confirm the machine duty, and attach the product-specific test and certification scope.
Feichun Cable technical contact
[email protected]
Technical RFQ, drawings, standards and certification scope
[email protected]
Technical RFQ, drawings, standards and certification scope
Source audit and publication note
- TebaoFlex — PNCT-RF / PNCT-RFS family page: family-level conductor, insulation, reinforcement, shield-option and application context.
- YH Cable — PNCT-R family page: public Korean nomenclature distinguishing round, flat and shielded flat types, plus low-voltage family context.
- Myoungin technical-data index: nearby Korean PNCT/reeling procurement context; not treated as an exact target datasheet.
- IEC 60502-1 information page: low-voltage fixed-installation standard context and its special-service boundary.
- IEC 60228 information page: nominal conductor area, resistance and conductor-class framework.
- IEC 60332-1-2 information page: single-cable vertical flame-propagation test-method context.
Prepared for Feichun Cable on 05 August 2026. Public sources are linked for engineering context. The quotation, approved construction drawing, type/routine test records and project-approved certificate scope control the final product.
