HARDRACE Q1657 HARDRACE Q1657 Front Lower Ball Joint Oe Replacement 2PCS/SET for LEXUS LM, TOYOTA Vellfire / Alphard 2023-

HARDRACE Q1657 HARDRACE Q1657 Front Lower Ball Joint Oe Replacement 2PCS/SET for LEXUS LM, TOYOTA Vellfire / Alphard 2023-

AED 716.80

Tax included. Shipping calculated at checkout

HARDRACEP/N: Q1657
Quantity:

This item is considered special order and is not available for immediate pickup or dispatch. Price and ETA may vary. Please note that no returns, cancellations, or refunds allowed on special orders.

Pickup available at ATOMIC-SHOP UAE Usually ready in 1 hour

HARDRACE Q1657 HARDRACE Q1657 Front Lower Ball Joint Oe Replacement 2PCS/SET for LEXUS LM, TOYOTA Vellfire / Alphard 2023-

ATOMIC-SHOP UAE

Pickup available, usually ready in 1 hour

26th Street - Al Quoz Industrial Area 2
Dubai DU
United Arab Emirates

+97143580877

ATOMIC-SHOP UAE (RABDAN Motorsport)

Pickup available, usually ready in 1 hour

14 10b St - Al Quoz Industrial Area 3
Dubai DU
United Arab Emirates

+971559861650

Description HARDRACE Q1657 Front Lower Ball Joints OE Replacement for TOYOTA Alphard / Vellfire and LEXUS LM

The HARDRACE Q1657 front lower ball joints are designed as OE replacement components for worn factory ball joints. Their reinforced construction helps restore a more precise steering feel and improves steering response.

Each ball joint features a high-quality joint assembly with a forged housing for increased strength and durability. The direct-fit design allows installation in the original mounting position without modification.

  • Replaces worn factory front lower ball joints
  • Helps restore precise steering feel
  • Improves steering response
  • High-quality ball joints with forged housings
  • OE direct-fit design

Specifications:

  • Product Code: Q1657
  • Position: Front Lower
  • Product Type: Ball Joint
  • Housing Construction: Forged
  • Fitment Type: OE Replacement
  • Quantity: 2 PCS/SET

Fitment:

  • TOYOTA Alphard / Vellfire 4th Generation: 2023–Present
  • LEXUS LM 2nd Generation: 2023–Present