IGET One Chup Chups Cherry

Trading in a depleted IGET Bar Pro 10000 PUFFS for something with even more endurance? This device swaps that familiar routine for the sustained satisfaction of 10,000 puffs, keeping your daily ritual uninterrupted without the constant need to restock or replace hardware.

The Details

• Puff Count: 10,000 puffs
• Battery Capacity: 2700mAh
• Coil Technology: Dual Mesh coil

Sustained Cherry Intensity

Every draw releases dense vapour and consistent flavour notes, ensuring the taste remains vibrant from the very first inhale through to the final puff. The robust 2700mAh battery supports this performance, maintaining steady output without degradation as you progress through the extensive puff count.

Positioned Within the IGET Ecosystem

This model sits comfortably alongside other high-capacity options like the IGET Bar Pro 10000 PUFFS, offering a distinct experience tailored for those who prioritise longevity and flavour fidelity. While it shares the brand’s commitment to quality, the IGET One distinguishes itself with its specific design language and reliable power delivery. Explore the wider range of IGET ONE devices to find the perfect match for your preferences, or browse our curated selection of Sydney Iget One stock for immediate availability.

FAQs

How does the Dual Mesh coil affect the cherry taste?

The Dual Mesh coil ensures even heating across the wick, which preserves the complex sweet and tart notes of the Chup Chups cherry flavour. This technology prevents dry hits and maintains a consistent, rich taste profile throughout the entire lifespan of the device.

What does the 2700mAh battery support during use?

The 2700mAh battery is engineered to power the device for its full 10,000 puff capacity. It provides stable voltage to the coil, ensuring that vapour production and flavour intensity remain strong and reliable until the e-liquid is fully consumed.

Why choose this over a standard disposable?

With 10,000 puffs, this device significantly reduces the frequency of replacements compared to lower-capacity models.