Copper Clad Steel Conductor(CCS Conductor)

CCS(30% Conductivity)is designed for use as grounding conductors in primary surge arrester systems.

ASTM B228
ASTM B910

Product Description

CCS(30% Conductivity)is designed for use as grounding conductors in primary surge arrester systems.

Application

Ideal for grounding in electrical systems, particularly for primary surge arresters.

Applicable Standard

ASTM B228 ,ASTM B910

Construction

Technical Parameters

30% Conductivity
40% Conductivity
Conductor Conductor
Size
AWG
Overall Dia Min.Breaking
Loads
Weight Cross Section
Area
I2t Approx.Short-
time
Fusing
Current at 30
Cycles

(kA)

Nominal DC
Resistance
at 68°F

(Ω/KFT)

Wire
No.
AWG inch mm Ibf kN Ibs/kft kg/km cmil mm2 kA2s
1   2 No.2 0.258 6.54 2276 10.10 184.1 274.04 66368 33.63 30.26 7.78 0.5209
1   4 No.4 0.204 5.19 1431 6.40 115.8 172.34 41738 21.15 11.97 4.89 0.8283
1   6 No.6 0.162 4.12 900 4.00 72.8 108.39 26250 13.30 4.73 3.08 1.3169
3   4 3 No.4 0.440 11.18 4079 18.10 350.2 521.17 125215 63.45 107.73 14.68 0.2761
3   5 3 No.5 0.392 9.96 3234 14.40 277.6 413.15 99263 50.30 6770 11.64 0.3483
3   6 3 No.6 0.349 8.87 2565 11.40 220.2 327.70 78732 39.89 42.59 9.23 0.4391
3   7 3 No.7 0.311 790 2035 9.10 174.7 260.00 62467 3165 26.81 732 0.5534
3   8 3 No.8 0.277 7.03 1614 720 138.5 206.18 49537 25.10 16.86 5.81 0.6979
3   9 3 No.9 0.247 6.26 1279 5.70 109.8 163.42 39262 19.89 10.59 4.60 0.8805
3 10 3 No.10 0.220 5.58 1015 4.50 87.1 129.66 31151 15.78 6.67 3.65 1.1098
3 12 3 No.12 0.174 4.42 638 2.80 54.8 81.52 19586 9.92 2.64 2.30 1.7650
7   4 7 No.4 0.613 15.57 9017 40.10 818.8 1218.48 292169 148.04 586.53 34.25 0.1183
7   5 7 No.5 0.546 13.86 7148 31.80 649.1 965.93 231613 11736 368.59 2715 0.1493
7   6 7 No.6 0.486 12.34 5670 25.20 514.8 766.15 183708 93.09 231.89 21.54 0.1882
7   7 7 No.7 0.433 11.00 4498 20.00 408.5 60787 145757 73.86 145.98 17.09 0.2372
7   8 7 No.8 0.386 9.79 3567 15.90 323.9 482.04 115586 58.57 91.80 13.55 0.2991
7   9 7 No.9 0.343 8.72 2827 12.60 256.7 382.06 91612 46.42 5767 10.74 0.3774
7 10 7 No.10 0.306 776 2243 10.00 203.7 303.13 72685 36.83 36.30 8.52 0.4756
19 5 19 No.5 0.910 23.10 19402 86.30 1768.7 2632.20 628665 318.55 2715.55 73.70 0.0550
19 6 19 No.6 0.810 20.57 15389 68.50 1402.9 208777 498636 252.66 1708.39 58.45 0.0693
19 7 19 No.7 0.722 18.33 12210 54.30 1113.1 1656.48 395627 200.47 1075.46 46.38 0.0874
19 8 19 No.8 0.643 16.32 9682 43.10 882.7 1313.59 313733 158.97 676.30 36.78 0.1102
19 9 19 No.9 0.572 14.53 7674 34.10 699.6 1041.13 248660 126.00 424.85 29.15 0.1390
Conductor Conductor
Size
AWG
OverallDia. Min.Breaking
Loads
Weight Cross Section
Area
I2t Approx.Short-
time Fusing
Current at
30 Cycles

(kA)

Nominal DC
Resistance
at 68°F

(Ω/KFT)

Wire
No.
AWG inch mm Ibf kN Ibs/kft kg/km cmil mm2 kA2s
1 2 No.2 0.258 6.54 2023 9.0 186.1 276.94 66368 33.63 40.29 8.98 0.3907
1 4 No.4 0.204 5.19 1272 5.7 1170 174.16 41738 21.15 15.94 5.65 0.6212
1 6 No.6 0.162 4.12 800 3.6 73.6 109.54 26250 13.3 6.30 3.55 0.9877
3 4 3 No.4 0.44 11.18 3626 16.1 353.9 526.67 125215 63.45 143.43 16.94 0.2087
3 5 3 No.5 0.392 9.96 2874 12.8 280.5 417.51 99263 50.3 90.13 13.43 0.2633
3 6 3 No.6 0.349 8.87 2280 10.1 222.5 331.16 78732 39.89 56.70 10.65 0.3319
3 7 3 No.7 0.311 790 1809 8.0 176.6 262.75 62467 31.65 35.70 8.45 0.4184
3 8 3 No.8 0.277 703 1434 6.4 140.0 208.36 49537 25.1 22.45 6.70 0.5276
3 9 3 No.9 0.247 6.26 1137 5.1 111.0 165.14 39262 19.89 14.10 5.31 0.6657
3 10 3 No.10 0.22 5.58 902 4.0 88.0 131.02 31151 15.78 8.88 4.21 0.8390
3 12 3 No.12 0.174 4.42 567 2.5 55.4 82.38 19586 9.92 3.51 2.65 1.3344
7 4 7 No.4 0.613 15.57 8015 35.7 827.4 1231.34 292169 148.04 780.87 39.52 0.0896
7 5 7 No.5 0.546 13.86 6354 28.3 655.9 976.13 231613 11736 490.72 31.33 0.1131
7 6 7 No.6 0.486 12.34 5040 22.4 520.2 774.23 183708 93.09 308.72 24.85 0.1425
7 7 7 No.7 0.433 11.00 3998 178 412.8 614.29 145757 73.86 194.34 19.72 0.1797
7 8 7 No.8 0.386 9.79 3171 14.1 3273 48713 115586 58.57 122.21 15.63 0.2266
7 9 7 No.9 0.343 8.72 2513 11.2 259.4 386.09 91612 46.42 76.77 12.39 0.2858
7 10 7 No.10 0.306 776 1994 8.9 205.8 306.33 72685 36.83 48.33 9.83 0.3603
19 5 19 No.5 0.91 23.10 17246 76.7 17874 2659.98 628665 318.55 3615.33 85.03 0.0418
19 6 19 No.6 0.81 20.57 13679 60.8 1417.7 2109.81 498636 252.66 2274.45 6745 0.0527
19 7 19 No.7 0.722 18.33 10853 48.3 1124.8 1673.96 395627 200.47 143180 53.51 0.0665
19 8 19 No.8 0.643 16.32 8606 38.3 892.0 132745 313733 158.97 900.39 42.44 0.0838
19 9 19 No.9 0.572 14.53 6821 30.3 7070 1052.12 248660 126 565.62 33.63 0.1057
19     0.528 13.40 5801 25.8 601.2 894.78 211475 10716 409.10 28.60 0.1243
19 10 19 No.10 0.51 12.94 5412 24.1 560.9 834.76 197289 99.97 356.05 26.69 0.1333
7   2/00 0.414 10.51 3652 16.2 3770 561.01 133115 6745 162.09 18.01 0.1967

FAQs

What is CCS Conductor?

A CCS (Copper Clad Steel) conductor is a high-performance, bimetallic conductor designed for applications where both electrical efficiency and mechanical durability are essential. It consists of a high-strength steel core that is thinly coated with a layer of copper. This unique construction combines the high mechanical resistance of steel with the excellent conductivity and corrosion resistance of copper.
CCS conductors are manufactured in a concentric-lay-stranded construction. The steel core provides mechanical strength that is roughly double that of pure copper. They are available in various conductivity grades, such as 20%, 30%, or 40% IACS.

What is the full form of CCS conductor?

The full form of CCS conductor is Copper Clad Steel Conductor. It is also commonly called copper-coated steel conductor or copper-covered steel wire. The conductor consists of a steel core surrounded by a continuous copper layer, which provides improved conductivity and corrosion protection compared with bare steel wire.

What is the difference between CCA and CCS cable?

The main difference between CCA and CCS cable is the core material. CCA (Copper Clad Aluminum) uses an aluminum core with a copper coating, making it lightweight and cost-effective. CCS (Copper Clad Steel) uses a steel core with a copper coating, providing much higher tensile strength and mechanical durability. CCA is mainly used for lightweight signal and communication applications, while CCS is preferred for grounding, antenna, and applications requiring higher strength.

Is CCS conductor better than copper?

CCS conductor is not better than pure copper in terms of electrical conductivity. Pure copper provides higher conductivity and better current-carrying performance. However, CCS conductor has advantages in mechanical strength, durability, and cost efficiency. The steel core allows CCS conductors to withstand higher pulling forces and mechanical stress, making them suitable for applications where strength is more important than maximum conductivity.

How long will CCS conductor last?

CCS conductors are renowned for their exceptional longevity. They have maintained a century-long reputation for durability.
General lifespan: Many sources state a service life of more than 30 years.
Buried applications: For buried grounding conductors, CCS can be expected to have a 50+ year service life.
Field-proven: Copperweld CCS grounding conductors, now known as Copperweld Century™, have over 100 years of service in the field. This long life is due to its superior resistance to fatigue and corrosion.

What can I use CCS conductor for?

Due to its unique combination of strength and conductivity, CCS is used in a wide variety of applications across different industries.
Grounding Systems: It is a primary choice for grounding in utility, industrial, and electric rail applications. This includes substation grounding grids, utility pole grounds, fence grounds, transformer and switch gear grounding, structure grounding, and lightning protection.
Cable TV and Data Transmission: It is widely used as the inner conductor in coaxial cables for CATV, CCTV, and radio antenna installations due to the “skin effect,” where signals travel on the outer copper surface.
Other Uses: It is also used in computer LAN, access network cables, telephone drop-wire, and as a messenger wire.

Is CCS cable any good?

Yes, CCS cable can be a good choice for specific applications where high strength, corrosion resistance, and cost control are important. Compared with pure copper cable, CCS cable is stronger and often more economical. However, it has lower electrical conductivity than pure copper, so it is not suitable for applications requiring maximum current-carrying capacity. The right choice depends on the project requirements and operating conditions.

Can CCS conductor be soldered?

Yes, CCS conductor can be soldered because its outer layer is copper. However, proper soldering methods and surface preparation are required to ensure a reliable connection. The copper coating thickness, soldering temperature, and application conditions should be considered. For critical installations, suitable connectors or mechanical bonding methods may provide better long-term reliability.




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