China AAAC EN 50182 DIN 48201 All Aluminum Alloy Conductor Manufacturer, Exporters

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China AAAC EN 50182 DIN 48201 All Aluminum Alloy Conductor Manufacturer, Exporters

Execution standard: BS EN 50182 Â (Old Standard: DIN 48201)

Material: AAAC adopts 6201-AL3 aluminum-magnesium-silicon alloy material.

Product advantage:
Thanks to their high strength, aluminum alloy stranded conductors reduce the number of towers needed during installation, cutting down costs associated with tower materials and land usage effectively.

AAC (All-Aluminum Alloy Conductor) is a robust transmission solution crafted entirely from high-strength aluminum alloy. Â It balances superior conductivity with enhanced mechanical resilience, resisting corrosion and fatigue effectivelyâ€”ideal for medium to high-voltage lines in coastal, industrial, or harsh weather zones.

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Product Description

AAAC Standard: EN 50182 (Old Standard: DIN 48201)

Type: AL3

Aluminum Alloy Conductor (AAAC)
Code Name	Old Code Name	Sectional Area	Wire Diameter & Stranding		Overall Diameter	Nominal Breaking Load	Linear Mass	Max Resistance (20℃)	Modulus of Elasticity	Linear Expansion Coeff.	Current Capacity
Code Name	Old Code Name	mm²	mm	No.	mm	kN	kg/km	Ω/km	N/mm²	1/K	A
16-AL3	16	15.9	1.7	7	5.1	4.69	43.5	2.0701	60000	2.3x10-5	105
24-AL3	25	24.2	2.1	7	6.3	7.15	66.4	1.3566	60000	2.3x10-5	135
34-AL3	35	34.4	2.5	7	7.5	10.14	94.1	0.9572	60000	2.3x10-5	170
49-AL3	50	49.5	3	7	9	14.6	135.5	0.6647	60000	2.3x10-5	210
48-AL3	50	48.3	1.8	19	9	14.26	133.0	0.6841	57000	2.3x10-5	210
66-AL3	70	65.8	2.1	19	10.5	19.41	181.1	0.5026	57000	2.3x10-5	255
93-AL3	95	93.3	2.5	19	12.5	27.51	256.6	0.3546	57000	2.3x10-5	320
117-AL3	120	117.0	2.8	19	14	34.51	321.9	0.2827	57000	2.3x10-5	365
147-AL3	150	147.1	2.25	37	15.75	43.4	405.8	0.2256	57000	2.3x10-5	425
182-AL3	185	181.6	2.5	37	17.5	53.58	500.9	0.1827	57000	2.3x10-5	490
243-AL3	240	242.5	2.25	61	20.25	71.55	669.9	0.1373	55000	2.3x10-5	585
299-AL3	300	299.4	2.5	61	22.5	88.33	827.0	0.1112	55000	2.3x10-5	670
400-AL3	400	400.1	2.89	61	26.01	118.04	1105.2	0.0832	55000	2.3x10-5	810
500-AL3	500	499.8	3.23	61	29.07	147.45	1380.5	0.0666	55000	2.3x10-5	930
626-AL3	625	626.2	2.96	91	32.56	184.73	1730.5	0.0534	55000	2.3x10-5	1075
802-AL3	800	802.1	3.35	91	36.85	236.62	2216.6	0.0417	55000	2.3x10-5	1255
1000-AL3	1000	999.7	3.74	91	41.14	294.91	2762.8	0.0334	55000	2.3x10-5	1450

Technical Notes:

⚙️

The outermost layer is twisted to the right (Z direction).

📊

Elastic and expansion coefficients in this table are specific to German standards. Other conductor structures should refer to IEC61597 for calculations.

⚡

Current flow values are calculated based on: 60Hz frequency, 0.6m/s wind speed, solar exposure, 35℃ ambient temperature, and 80℃ conductor temperature. In non-convection conditions, values may decrease by up to 30%.

Frequently Asked Questions

What is the difference between EN 50182 and DIN 48201 standards?

EN 50182 is the current European standard for conductors for overhead lines, which has superseded the older DIN 48201 German standard. While they cover similar specifications, EN 50182 provides updated technical requirements and testing procedures for modern power grids.

Why is the outermost layer of the AAAC conductor twisted to the right (Z)?

The "Z" twist direction for the outermost layer is a standard industry practice to ensure structural stability during installation and to provide uniform mechanical performance when the conductor is tensioned across transmission towers.

What are the primary advantages of using AL3 Aluminum Alloy Conductors?

AL3 alloy conductors offer a superior strength-to-weight ratio compared to standard aluminum. They provide excellent corrosion resistance, lower electrical losses than ACSR in some scenarios, and higher mechanical tension capabilities without the need for a steel core.

How does ambient temperature affect the current-carrying capacity?

The current capacity is calculated at a standard 35℃ ambient temperature. If the ambient temperature increases, the conductor's ability to dissipate heat decreases, which reduces the maximum allowable current to prevent the conductor from exceeding its 80℃ thermal limit.

Can these AAAC conductors be used in coastal environments?

Yes, AAAC conductors are highly recommended for coastal or industrial areas. Because they consist entirely of aluminum alloy (without a steel core), they are naturally more resistant to galvanic corrosion than ACSR conductors.

What is meant by "Modulus of Elasticity" in the data table?

The Modulus of Elasticity (measured in N/mm²) represents the conductor's stiffness. It is a critical value for engineers when calculating the "sag and tension" of the lines during the design phase of overhead power transmission systems.

Product Detail

China AAAC EN 50182 DIN 48201 All Aluminum Alloy Conductor Manufacturer, Exporters

Product Description

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