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ALL ALUMINUM ALLOY CONDUCTORS(AAAC)

All Aluminum alloy (ALMELEC) conductors are made from high-strength Aluminum-Magnesium-Silicon alloy.
Construction
Technical Specifications
Quality Control
Application

Construction

All Aluminum Alloy (ALMELEC) Conductors

Standard

ASTM B 399/B 399M,BS EN 50182, IEC 61089,AS 1531, DIN 48201-6, BS EN 50183, BS 3242, NF C 34-125, GB/T 1179

Technical Specifications

All Aluminum Alloy Conductors(AAAC)
BS EN 50182
IEC 60189
DIN 48201
ASTM B 399/B 399M
GB/T 1179-2008 TYPE : JLHA1
GB/T 1179-2008 TYPE : JLHA2
AS 1531
EN 50182/NF C 34-125
Code Name Nominal
Area
No. / Dia. of Wire Approx. Overall Diameter Approx. Weight Calculated Breaking Load DC Resistance at 20° C Max.
mm² No. / mm mm kg/km kN Ohm/km
Box 18.8 7/1.85 5.55 51.4 5.6 1.7480
Acacia 23.8 7/2.08 6.24 64.9 7.0 1.3828
Almond 30.1 7/2.34 7.02 82.2 8.9 1.0926
Cedar 35.5 7/2.54 7.62 96.8 10.5 0.9273
Deodar 42.2 7/2.77 8.31 115.2 12.4 0.7797
Fir 47.8 7/2.95 8.85 130.6 14.1 0.6875
Hazel 59.9 7/3.30 9.90 163.4 17.7 0.5494
Pine 71.6 7/3.61 10.83 195.6 21.1 0.4591
Holly 84.1 7/3.91 11.73 229.5 24.8 0.3913
Willow 89.7 7/4.04 12.12 245.0 26.5 0.3665
Oak 118.9 7/4.65 13.95 324.5 35.1 0.2767
Mulberry 150.9 19/3.18 15.90 414.3 44.5 0.2192
Ash 180.7 19/3.48 17.40 496.1 53.3 0.1830
Elm 211.0 19/3.76 18.80 579.2 62.2 0.1568
Poplar 239.4 37/2.87 20.09 659.4 70.6 0.1387
Sycamore 303.2 37/3.23 22.61 835.2 89.4 0.1095
Upas 362.1 37/3.53 24.71 997.5 106.8 0.0917
Yew 479.0 37/4.06 28.42 1319.6 141.3 0.0693
Totara 498.1 37/4.14 28.98 1372.1 146.9 0.0666
Rubus 586.9 61/3.50 31.50 1622.0 173.1 0.0567
Sorbus 659.4 61/3.71 33.39 1822.5 194.5 0.0505
Araucaria 821.1 61/4.14 37.26 2269.4 242.2 0.0406
Redwood 996.2 61/4.56 41.04 2753.2 293.9 0.0334
Code Name Nominal
Area
No. / Dia. of Wire Approx. Overall Diameter Approx. Weight Calculated Breaking Load DC Resistance at 20° C Max.
mm² No. / mm mm kg/km kN Ohm/km
16 18.4 7/1.83 5.49 50.4 5.4 1.7896
25 28.8 7/2.29 6.87 78.7 8.5 1.1453
40 46.0 7/2.89 8.67 125.9 13.6 0.7158
63 72.5 7/3.63 10.89 198.3 21.4 0.4545
100 115.0 19/2.78 13.90 316.3 34.0 0.2877
125 144.0 19/3.10 15.50 395.4 42.4 0.2302
160 184.0 19/3.51 17.55 506.1 54.3 0.1798
200 230.0 19/3.93 19.65 632.7 67.9 0.1439
250 288.0 19/4.39 21.95 790.8 84.9 0.1151
315 363.0 37/3.53 24.71 998.9 107.0 0.0916
400 460.0 37/3.98 27.86 1268.4 135.8 0.0721
450 518.0 37/4.22 29.54 1426.9 152.8 0.0641
500 575.0 37/4.45 31.15 1585.5 169.8 0.0577
560 645.0 61/3.67 33.03 1778.4 190.1 0.0516
630 725.0 61/3.89 35.01 2000.7 213.9 0.0458
710 817.0 61/4.13 37.17 2254.8 241.1 0.0407
800 921.0 61/4.38 39.42 2540.6 271.6 0.0361
900 1036.0 91/3.81 41.91 2861.1 305.6 0.0321
1000 1151.0 91/4.01 44.11 3179.0 339.5 0.0289
1120 1289.0 91/4.25 46.75 3560.5 380.3 0.0258
1250 1439.0 91/4.49 49.39 3973.7 424.4 0.0231
Nominal
Area
Actual
Area
No. / Dia. of Wire Approx. Overall Diameter Approx. Weight Calculated Breaking Load DC Resistance at 20° C Max.
mm² mm² No. / mm mm kg/km kN Ohm/km
16 15.9 7/1.70 5.10 43.0 4.4 2.0742
25 24.3 7/2.10 6.30 66.0 6.8 1.3593
35 34.4 7/2.50 7.50 94.0 9.6 0.9591
50 49.5 7/3.00 9.00 135.0 13.8 0.6660
50 48.4 19/1.80 9.00 133.0 13.5 0.6849
70 65.8 19/2.10 10.50 181.0 18.4 0.5032
95 93.3 19/2.50 12.50 256.0 26.1 0.3551
120 117.0 19/2.80 14.00 322.0 32.7 0.2831
150 147.1 37/2.25 15.80 406.0 41.1 0.2256
185 181.6 37/2.50 17.50 500.0 50.7 0.1828
240 242.5 61/2.25 20.30 670.0 67.7 0.1371
300 299.4 61/2.50 22.50 827.0 83.6 0.1110
400 400.1 61/2.89 26.00 1104.0 111.8 0.0831
500 499.8 61/3.23 29.10 1379.0 139.6 0.0665
625 626.2 91/2.96 32.60 1732.0 174.9 0.0531
800 802.1 91/3.35 36.90 2218.0 224.0 0.0415
1000 999.7 91/3.74 41.10 2767.0 279.2 0.0333
Code Name Total Area 1350 Grade Equivalent No. / Dia. of Wire Approx. Overall Diameter Approx. Weight Calculated Breaking Load DC Resistance at 20° C Max.
AWG or MCM mm² (Approx)AWG or MCM No. / mm mm kg/km kN Ohm/km
Akron 30.6 15.5 6 7/1.68 5.04 43.0 4.9 2.1588
Alton 48.7 24.7 4 7/2.12 6.36 68.0 7.8 1.3557
Ames 77.5 39.2 2 7/2.67 8.01 108.0 12.4 0.8547
Azusa 123.3 62.4 1 7/3.37 10.11 171.0 18.9 0.5365
Anaheim 155.4 78.6 2/0 7/3.78 11.34 216.0 23.8 0.4264
Amherst 195.7 99.3 3/0 7/4.25 12.75 272.0 30.0 0.3373
Alliance 246.9 125.1 4/0 7/4.77 14.31 343.0 37.8 0.2678
Butte 312.8 158.6 266.8 19/3.26 16.30 435.0 46.5 0.2112
Canton 394.5 199.9 336.4 19/3.66 18.30 548.0 58.6 0.1676
Cairo 465.4 236.4 397.5 19/3.98 19.90 649.0 69.3 0.1417
Darien 559.5 283.6 477 19/4.36 21.80 778.0 83.1 0.1181
Elgin 652.6 331.0 556.5 19/4.71 23.55 908.0 97.0 0.1012
Flint 740.8 374.5 636 19/3.59 25.13 1028.0 107.4 0.0894
Greeley 927.2 469.6 795 19/4.02 28.14 1289.0 134.6 0.0713
Nominal
Area
Actual
Area
No. / Dia. of Wire Approx. Overall Diameter Approx. Weight Calculated Breaking Load DC Resistance at 20° C Max.
mm² mm² No. / mm mm kg/km kN Ohm/km
10 10.0 7/1.35 4.05 27.4 3.3 3.3205
16 16.1 7/1.71 5.13 44.0 5.2 2.0695
25 24.9 7/2.13 6.39 68.2 8.1 1.3339
35 34.9 7/2.52 7.56 95.5 11.4 0.9529
50 50.1 7/3.02 9.06 137.2 16.3 0.6635
70 70.1 7/3.57 10.70 191.7 22.1 0.4748
95 95.1 7/4.16 12.50 261.5 30.0 0.3514
120 120.4 19/2.84 14.20 330.8 35.5 0.2751
150 150.0 19/3.17 15.90 412.2 48.7 0.2229
210 209.9 19/3.75 18.80 576.8 66.1 0.1593
240 240.0 19/4.01 20.10 661.1 75.6 0.1397
300 299.4 37/3.21 22.50 825.0 97.3 0.1119
400 400.0 37/3.71 26.00 1102.0 126.0 0.0838
500 500.5 37/4.15 29.10 1380.9 157.7 0.0671
630 631.3 61/3.63 32.70 1741.8 198.9 0.5320
800 801.4 61/4.09 36.80 2211.3 252.5 0.0419
1000 1000.6 61/4.57 41.10 2760.7 315.2 0.0335
Nominal
Area
Actual
Area
No. / Dia. of Wire Approx. Overall Diameter Approx. Weight Calculated Breaking Load DC Resistance at 20° C Max.
mm² mm² No. / mm mm kg/km kN Ohm/km
10 10.0 7/1.35 4.05 27.4 3.3 3.3205
16 16.1 7/1.71 5.13 44.0 5.2 2.0695
25 24.9 7/2.13 6.39 68.2 8.1 1.3339
35 34.9 7/2.52 7.56 95.5 11.4 0.9529
50 50.1 7/3.02 9.06 137.2 16.3 0.6635
70 70.1 7/3.57 10.70 191.7 22.1 0.4748
95 95.1 7/4.16 12.50 261.5 30.0 0.3514
120 120.4 19/2.84 14.20 330.8 35.5 0.2751
150 150.0 19/3.17 15.90 412.2 48.7 0.2229
210 209.9 19/3.75 18.80 576.8 66.1 0.1593
240 240.0 19/4.01 20.10 661.1 75.6 0.1397
300 299.4 37/3.21 22.50 825.0 97.3 0.1119
400 400.0 37/3.71 26.00 1102.0 126.0 0.0838
500 500.5 37/4.15 29.10 1380.9 157.7 0.0671
630 631.3 61/3.63 32.70 1741.8 198.9 0.5320
800 801.4 61/4.09 36.80 2211.3 252.5 0.0419
1000 1000.6 61/4.57 41.10 2760.7 315.2 0.0335
Type No. / Dia. of Wire Approx. Overall Diameter Approx. Weight Calculated Breaking Load DC Resistance at 20° C Max.
No. / mm mm kg/km kN Ohm/km
Diamond 7/2.50 7.50 94.0 9.6 0.9670
Dolomite 7/2.75 8.25 114.0 11.6 0.7990
Emerald 7/3.00 9.00 135.0 13.9 0.6710
Garnet 7/3.75 11.25 212.0 21.7 0.4300
Jade 7/4.50 13.50 305.0 31.2 0.2980
Jasper 7/4.75 14.25 340.0 34.8 0.2680
Opal 19/3.25 16.25 434.0 44.2 0.2120
Patronite 19/3.50 17.50 503.0 51.3 0.1830
Pearl 19/3.75 18.75 577.0 58.8 0.1590
Ruby 37/3.00 21.00 721.0 73.5 0.1280
Ruthenium 37/3.25 22.75 846.0 86.1 0.1090
Rutile 19/4.75 23.75 926.0 94.4 0.0991
Sapphire 37/3.75 26.25 1127.0 115.0 0.0819
Spinel 61/3.25 29.25 1398.0 135.0 0.0662
Tantalum 61/3.50 31.50 1621.0 156.0 0.0572
Topaz 61/3.75 33.75 1861.0 179.0 0.0498
Type Number / Dia. of Wire Approx. Overall Diameter Approx. Weight Calculated Breaking Load DC Resistance at 20° C Max.
No. / mm mm kg/km kN Ohm/km
22-AL4 7/2.00 6.00 60.0 7.2 1.4989
34-AL4 7/2.50 7.50 93.8 11.2 0.9593
55-AL4 7/3.15 9.45 148.9 17.7 0.6042
76-AL4 19/2.25 11.30 207.4 24.6 0.4388
117-AL4 19/2.80 14.00 321.2 38.0 0.2833
148-AL4 19/3.15 15.80 406.5 48.1 0.2239
182-AL4 37/2.50 17.50 500.3 59.0 0.1831
228-AL4 37/2.80 19.60 627.6 74.0 0.1460
288-AL4 37/3.15 22.10 794.3 93.7 0.1154
366-AL4 37/3.55 24.90 1008.9 115.4 0.0908
570-AL4 61/3.45 31.10 1576.0 185.3 0.0585
851-AL4 91/3.45 38.00 2360.7 276.5 0.0394
1144-AL4 91/4.00 44.00 3173.4 360.2 0.0293
1596-AL4 127/4.00 52.00 4427.5 502.7 0.0210

Quality Control

All Aluminum Alloy Conductors
Raw Material Test

Raw Material Test

NPC has always chosen raw material suppliers who have a good reputation, possess stable supply capabilities and have passed international quality system certifications (such as ISO 9001). And establish a long-term cooperative relationship with it, forming a stable and reliable raw material supply chain.
We will ensure that all raw materials are subject to strict inspection procedures upon entry to the factory, and can only be stored in the warehouse after they have been confirmed to meet the standards.
Process Inspection

Process Inspection

NPC has strict quality control procedures for each process in the cable production process.
Process documents: Develop detailed process flow and operation instructions to clarify the operating specifications and quality standards of each process.
Equipment calibration: Regularly calibrate key equipment such as wire drawing machines, stranding machines, extruders, and diameter gauges to ensure that the accuracy meets the requirements.
First piece confirmation: Before each batch of production, the first piece is trial-produced to confirm that the process parameters, product dimensions, electrical performance, etc. meet the standards before mass production can be carried out.
Finished Product

Finished Product

Inspectors conduct ex-factory inspections on cables according to relevant standards and corresponding product inspection specifications to ensure that each ex-factory product complies with the process regulations.

Application

AAAC is mainly used for overhead lines, in transmission and distribution electrical networks, having relatively long spans. They are also used as a messenger to support overhead electrical cables.

Factory View

● 30+ years of manufacturing experience
● ISO and UL certified production
● Customized cable and transformer solutions

Product Packaging

Packaging and delivery site
Packaging and delivery site
Packaging and delivery site
Packaging and delivery site
Packaging and delivery site
Packaging and delivery site
Packaging and delivery site
Packaging and delivery site
Packaging and delivery site
Packaging and delivery site
Packaging and delivery site
Packaging and delivery site
Packaging and delivery site
Packaging and delivery site
Packaging and delivery site
Packaging and delivery site

Related Products

FAQ From Customers

What are the advantages of power cables and overhead lines?
(1) Reliable operation, because it is installed in a hidden place such as underground, it is less damaged by external forces, has less chance of failure, and the power supply is safe, and it will not cause harm to people;
(2) The maintenance workload is small and frequent inspections are not required;
(3) No need to erect towers;
(4) Help improve power factor.
Which aspects should be considered when choosing the cross section of a power cable?
(1) The long-term allowable working current of the cable;
(2) Thermal stability once short circuited;
(3) The voltage drop on the line cannot exceed the allowable working range.
What are the measures for cable fire prevention?
(1) Use flame-retardant cables;
(2) Use fireproof cable tray;
(3) Use fireproof paint;
(4) Fire partition walls and fire baffles are installed at cable tunnels, mezzanine exits, etc.;
(5) Overhead cables should avoid oil pipelines and explosion-proof doors, otherwise local pipes or heat insulation and fire prevention measures should be taken.
What should be paid attention to during the transportation and handling of cables?
(1) During transportation, loading and unloading, cables and cable reels should not be damaged. It is strictly forbidden to push the cable reels directly from the vehicle. Generally, cables should not be transported and stored flat.
(2) Before transporting or rolling the cable reel, ensure that the cable reel is firm, the cable is wound tightly, the oil pipe between the oil-filled cable and the pressure oil tank should be fixed without damage, the pressure oil tank should be firm, and the pressure indication should meet the requirements.
What inspections should be carried out for the acceptance of cable lines?
(1) The cable specifications should meet the regulations, the arrangement should be neat, no damage, and the signs should be complete, correct and clear;
(2) The fixed bending radius of the cable, the related distance and the wiring of the metal sheath of the single-core power cable should meet the requirements;
(3) The cable terminal and the middle head should not leak oil, and the installation should be firm. The oil pressure of the oil-filled cable and the meter setting should meet the requirements;
(4) Good grounding;
(5) The color of the cable terminal is correct, and the metal parts such as the bracket are completely painted;
(6) There should be no debris in the cable trench, tunnel, and bridge, and the cover should be complete.
How many projects can cable engineering be divided into?
(1) Construction site transportation: including the loading and unloading, transportation and empty vehicle return journey of engineering materials from the warehouse to the construction site.
(2) Local engineering: including road excavation, tunnel, trench construction, etc.
(3) Laying engineering: including laying, intermediate head production, lift cover plate, buried pipe, school tide, tractor head production, etc.
(4) Two-end engineering: including the production and installation of support, suspension bridge and its foundation, the production of terminal heads, the installation of oil pressure and signal devices, and the electrical performance testing of various types.
(5) Stopping works: including the production of oil-filled cable stop heads, the installation of fuel supply tanks, automatic drainage and signal devices, etc.
(6) Grounding engineering: including installation of insulation joints, transposition boxes, protectors, and grounding boxes.
What tests and inspections should be carried out on power cables before laying?
Before laying, check whether the type, specification and length of the cable meet the requirements and whether there is external force damage. Low-voltage cables use a 1000V megohmmeter to remotely measure the insulation resistance, and the resistance is generally not less than 10MΩ. High-voltage cables use a 2500V megger to measure the resistance. Generally not less than 400MΩ.
What are the factors that determine the long-term allowable current carrying capacity of the cable?
(1) The long-term allowable working temperature of the cable;
(2) The heat dissipation performance of the cable itself; (3) The condition of the cable installation and the heat dissipation conditions of the surrounding environment.
According to the difference of insulation and protective layer, what are the main types of commonly used low-voltage power cables?
(1) Oil-impregnated paper insulated lead-clad (or aluminum-clad) power cable;
(2) Non-drip oil-impregnated paper insulated power cable;
(3) PVC insulated and sheathed power cable;
(4) Cross-linked PVC insulated and PE sheathed power cable;
(5) Cross-linked PVC insulated and sheathed power cable;
(6) Rubber insulated power cables.
What are the requirements for the fire blocking of cable holes?
For larger cable penetration holes, such as the cable penetration floor, etc., when using fireproof blocking materials to block, according to the actual situation, first coat four to six layers of fireproof paint on the cable surface, the length is about 1.5m below the hole, and then use fire-resistant The material is processed into a board-supporting fire-proof blocking material with a certain strength to ensure that it is firm after being blocked and is easy to disassemble and assemble when the cable is replaced. The plugging is dense and non-porous to effectively block smoke and fire.
What are the main properties of the insulation material of the power cable?
(1) High breakdown strength;
(2) Low dielectric loss;
(3) Very high insulation resistance;
(4) Excellent discharge resistance;
(5) It has certain flexibility and mechanical strength;
(6) Long-term insulation performance is stable.
What are the regulations for cable protection tubes?
(1) When the cable needs to be laid through a protective pipe, the inner diameter of the pipe should not be less than 1.5 times the outer diameter of the cable, and the inner diameter of the concrete pipe, clay pipe, asbestos, and cement pipe should not be less than 100mm;
(2) The bending radius of the cable tube should meet the requirements of the bending radius of the cable inserted;
(3) Each pipe should not exceed three elbows at most, and there should be no more than two right-angle bends.
How to measure the outer diameter of the cable sheath?
At five evenly distributed points on the circumference of the sheath, measure the outer diameter of the sheath and its average value. The average outer diameter is the outer diameter of the sheath.
How to connect copper core cables with different cross-sections?
Copper core cables with different cross-sections can be connected by open-back weak copper pipes and connected by soldering, or pure copper rods can be connected into copper pipes according to different cross-sectional requirements and connected by crimping.
What are the insulating materials used to make cable terminal heads or intermediate joints?
There are insulating glue, insulating tape, insulating tube, insulating gloves, insulating resin, etc.

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