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AAAC- All Aluminum Alloy Conductor
AAAC- All Aluminum Alloy Conductor
AAAC- All Aluminum Alloy Conductor
AAAC- All Aluminum Alloy Conductor

AAAC- All Aluminum Alloy Conductor

AAAC has been widely used in transmission lines with various voltage levels, because they have such good characteristics as simple structure, convenient installation and maintenance...
Certificate :
ISO 9001 ISO 14001 ISO 45001
Manufacturing Capacity :
10000km/Month
Packaging Details :
Wood Drum, Steel-Wood Drum or Metal Drum
Product Description
Product Application
Product Structure
Main Features
Specification
Related Products
Product Description
AAAC has been widely used in transmission lines with various voltage levels, because they have such good characteristics as simple structure, convenient installation and maintenance, low cost large transmission capacity. And they are also suitable for laying across rivers valleys and the places where special geographical features exist. Used as bare overhead conductor for primary and secondary distribution. Designed utilizing a high-strength aluminum alloy to achieve a high strength-to-weight ratio; affords better sag characteristics. Aluminum alloy have higher resistance to corrosion than ACSR.
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Product Application
AAAC has been widely used in transmission lines with various voltage levels, because they have such good characteristics as simple structure, convenient installation and maintenance, low cost large transmission capacity. And they are also suitable for laying across rivers valleys and the places where special geographical features exist. Used as bare overhead conductor for primary and secondary distribution. Designed utilizing a high-strength aluminum alloy to achieve a high strength-to-weight ratio; affords better sag characteristics. Aluminum alloy have higher resistance to corrosion than ACSR.
Product Application
Product Application
Product Application
Product Structure
All Aluminum Alloy Conductor (AAAC) is made from aluminum magnesium-silicon alloy. These alloys ensure high electrical conductivity containing sufficient magnesium silicone to provide it superior mechanical properties after conduction. AAAC conductor has a enhanced corrosion resistance and improved strength to weight ratio and improved electrical conductivity than ACSR CONDUCTOR on equal diameter basis. All Aluminum Alloy Stranded Conductor should have alternating lay between each layer; the outer layer shall have a right hand direction(Optional).
AAAC- All Aluminum Alloy Conductor
Standard
IEC standard, ASTM standard, BS standard, DIN standard, EN standard, AS/NZS Standard and other standard and customizable cable.
Feature
High Strength to weight ratio than AAC,Improved electrical properties.
Specification

Table 1 AAAC(Characteristics of A2 Conductor ) IEC 61089

 

Code Name Calculated Area Number of Wire Diameter Weight Rated Strength Max.D.C. Resistance at 20℃
Wire Cond.
mm² mm mm kg/km KN ohm/km
16 18.4 7 1.83 5.49 50.4 5.43 1.7896
25 28.8 7 2.29 6.86 78.7 8.49 1.1453
40 46 7 2.89 8.68 125.9 13.58 0.7158
63 72.5 7 3.63 10.90 198.3 21.39 0.4545
100 115 19 2.78 13.90 316.3 33.95 0.2877
125 144 19 3.10 15.50 395.4 42.44 0.2302
160 184 19 3.51 17.60 506.1 54.32 0.1798
200 230 19 3.93 19.60 632.7 67.91 0.1439
250 288 19 4.93 22.00 790.8 84.88 0.1151
315 363 37 3.53 24.70 998.9 106.95 0.0916
400 460 37 3.98 27.90 1268.4 135.81 0.0721
450 518 37 4.22 29.60 1426.9 152.79 0.0641
500 575 37 4.45 31.20 1585.5 169.76 0.0577
560 645 61 3.67 33.00 1778.4 190.14 0.0516
630 725 61 3.89 35.00 2000.7 213.90 0.0458
710 817 61 4.13 37.20 2254.8 241.07 0.0407
800 921 61 4.38 39.50 2540.6 271.62 0.0361
900 1036 91 3.81 41.80 2861.1 305.58 0.0321
1000 1151 91 4.01 44.10 3179.0 339.53 0.0289
1120 1289 91 4.25 46.70 3560.5 380.27 0.0258
1250 1439 91 4.49 49.40 3973.7 424.41 0.0231

 

Table 2 AAAC(Characteristics of A3 Conductor ) IEC 61089

 

Code Name Calculated Area Number of Wire Diameter Weight Rated Strength Max.D.C. Resistance at 20℃
Wire Cond.
mm² mm mm kg/km kn ohm/km
16 18.6 7 1.84 5.52 50.8 6.04 1.7896
25 29 7 2.30 6.90 79.5 9.44 1.1453
40 46.5 7 2.91 8.72 127.1 15.10 0.7158
63 73.2 7 3.65 10.90 200.2 23.06 0.4545
100 116 19 2.79 14.00 319.3 37.76 0.2877
125 145 19 2.12 15.60 399.2 47.20 0.2302
160 186 19 3.53 17.60 511.0 58.56 0.1798
200 232 19 3.95 19.70 638.7 73.20 0.1439
250 390 19 4.41 23.10 798.4 91.50 0.1151
315 366 37 3.55 24.80 1008.4 115.29 0.0916
400 465 37 4.00 28.00 1280.5 146.40 0.0721
450 523 37 4.24 29.70 1440.5 164.70 0.0641
500 581 37 4.47 31.30 1600.6 183.00 0.0577
560 651 61 3.69 33.20 1795.3 204.96 0.0516
630 732 61 3.91 35.20 2019.8 230.58 0.0458
710 825 61 4.15 37.30 2276.2 259.86 0.0407
800 930 61 4.40 39.60 2564.8 292.80 0.0361
900 1046 91 3.83 42.10 2888.3 320.40 0.0321
1000 1162 91 4.03 44.40 3209.3 366.00 0.0289
1120 1301 91 4.27 46.90 3954.4 409.92 0.0258

 

Table 3 ASTM B399

 

Area Stranding and Wire Diameter Approx overall Diameter Weight Nomianl Breaking Load Max.D.C .Resisitance at 20℃
Nominal Actual
AWG or MCM mm2 mm mm kg/km kN Ω/km
6 13.3 7/1.554 4.67 37 4.22 2.5199
4 21.15 7/1.961 5.89 58 6.71 1.5824
2 33.63 7/2.474 7.42 93 10.68 0.9942
1/0 53.48 7/3.119 9.36 148 16.97 0.6256
2/0 67.42 7/3.503 10.51 186 20.52 0.4959
3/0 85.03 7/3.932 11.8 234 25.86 0.3936
4/0 107.23 7/4.417 13.26 296 32.63 0.3119
250 126.66 19/2.913 14.57 349 38.93 0.2642
300 152.1 19/3.193 15.97 419 46.77 0.2199
350 177.35 19/3.447 17.24 489 52.25 0.1887
400 202.71 19/3.686 18.43 559 59.74 0.165
450 228 19/3.909 19.55 629 67.19 0.1467
500 253.35 19/4.120 20.6 698 74.64 0.1321
550 278.6 37/3.096 21.67 768 83.8 0.1202
600 303.8 37/3.233 22.63 838 91.38 0.1102
650 329.25 37/3.366 23.56 908 97.94 0.1016
700 354.55 37/3.493 24.45 978 102.2 0.0944
750 380.2 37/3.617 25.32 1049 109.6 0.088
800 405.15 37/3.734 26.14 1117 116.8 0.0826
900 456.16 37/3.962 27.73 1258 131.5 0.0733
1000 506.71 37/4.176 29.23 1399 146.1 0.066

 

Table 4 BS EN 50183

 

Code Name Calculated Area Number of Wire Diameter Weight Rated Strength Max.D.C. Resistance at 20℃
Wire Cond.
mm² mm mm kg/km KN ohm/km
Box 18.8 7 1.85 5.55 51.4 5.55 1.748
Acacia 23.8 7 2.08 6.24 64.9 7.02 1.3828
Almond 30.1 7 2.34 7.02 82.2 8.88 1.0926
Cedar 35.7 7 2.54 7.62 96.8 10.46 0.9273
Deodar 42.2 7 2.77 8.31 115.2 12.44 0.7797
Fir 47.8 7 2.95 8.85 130.6 14.11 0.6875
Hazel 59.9 7 3.30 9.90 163.4 17.66 0.5494
Pine 71.6 7 3.61 10.80 195.6 21.14 0.4591
Holly 84.1 7 3.91 11.70 229.5 24.79 0.3913
Willow 89.7 7 4.04 12.10 245.0 26.47 0.3665
Oak 118.9 7 4.65 14.00 324.5 35.07 0.2767
Mulberry 150.9 19 3.18 15.90 414.3 44.52 0.2192
Ash 180.7 19 3.48 17.40 496.1 53.31 0.183
Elm 211.0 19 3.76 18.80 579.2 62.24 0.1568
Poplar 239.4 37 2.87 20.10 659.4 70.61 0.1387
Sycamore 303.2 37 3.23 22.60 835.2 89.40 0.1095
Upas 361.1 37 3.53 24.70 997.5 106.82 0.0917
Yew 479.0 37 4.06 28.40 1319.6 141.31 0.0693
Totara 498.1 37 4.24 29.00 1372.1 146.93 0.0666
Rubus 596.9 61 3.50 31.50 1622.0 173.13 0.0567
Sorbus 659.4 61 3.71 33.40 1822.5 194.53 0.0505
Araucaria 821.1 61 4.14 37.30 2269.4 242.24 0.0406
Redwood 996.2 61 4.56 41.00 2753.2 293.88 0.0334

 

Table 5 DIN 48201

 

Code Number Calculated Area No.and Diameter of the Wire Overall Diameter of Conductor Linear Mass Rated Strength Max.D.C. Resistance at 20℃
mm mm² mm kg/km daN ohm/km
16 15.89 7/1.70 5.1 43 444 2.0910
25 24.25 7/2.10 6.3 66 677 1.3703
35 34.36 7/2.50 7.5 94 960 0.9669
50 49.48 7/3.00 9 135 1382 0.6714
50 48.35 19/1.80 9 133 1350 0.6905
70 65.81 19/2.10 10.5 181 1838 0.5073
95 93.27 19/2.50 12.5 256 2605 0.3579
120 117 19/2.80 14 322 3268 0.2854
150 147.1 37/2.25 15.75 405 4109 0.2274
185 181.6 37/2.50 17.5 500 5073 0.1842
240 242.5 61/2.25 20.25 669 6774 0.1383
300 299.4 61/2.50 22.5 826 8363 0.1120
400 400.1 61/2.89 26.01 1104 11170 0.0838
500 499.8 61/3.23 29.07 1379 13960 0.0671
625 626.2 91/2.96 32.56 1733 17490 0.0540
800 802.1 91/3.35 36.85 2219 22400 0.0418
1000 999.7 91/3.74 41.14 2766 27920 0.0335
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To be used for power distribution in medium voltage, as transformer feeders in substations. In power plants, industrial and operation installations, in residential areas and mining installations, in dry or wet locations, fixed installed in air, directly buried in the ground or in ducts, where require higher mechanical protection.