Qualcomm has pushed mobile silicon dimensions to new extremes with the release of the Snapdragon 8 Elite Extreme Gen 6. In depth analysis from tech channel Geekerwan puts the massive processor directly against the Apple A20 Pro across synthetic stress tests and heavy gaming titles. While Qualcomm captures the lead in multi core scoring and selected game frame rates, the performance gains require significantly more power.
Under the microscope, Qualcomm altered its silicon packaging to handle thermal output better. The memory sits on the same substrate as the chipset but is shifted to the side so the two parts do not dump heat into each other. This physical layout makes the chip huge. The Snapdragon 8 Elite Extreme Gen 6 measures 296.8 mm², making it far larger than the 245.7 mm² Apple A20 Pro, the 236.8 mm² Dimensity 9600 Pro, and the older 223.3 mm² Gen 5 processor.
Raw benchmark scores show a tight race. In Geekbench 6, Apple keeps the single core crown with 4768 points against 4377 for Qualcomm. The numbers flip in multi core testing, where the Snapdragon pulls ahead with 13363 points over Apple 13025 points. But power consumption tells a different story. Qualcomm draws over 20W during full load, while Apple stays near 13W. In 3DMark Steel Nomad Light, graphics performance is neck and neck, yet Apple pulls around 13W compared to roughly 17W on the Qualcomm platform.
Gaming tests show where that extra wattage goes. In Wuthering Waves, the Snapdragon device averaged 58.4 fps with a 7.4W power draw, beating the 49 fps recorded on the iPhone 18 Pro Max at 5.9W. In titles like Genshin Impact, Arknights Endfield, and Neverness to Everness, both processors delivered nearly identical performance. Geekerwan also demonstrated Qualcomm proprietary upscaling and frame generation in Honkai Star Rail, with future support coming to Where Winds Meet and Diablo Immortal. The phone even ran PC games like Cyberpunk 2077 and Black Myth Wukong through emulation at a steady 30 fps. Because both chips are brand new, upcoming game updates and driver patches could improve efficiency over time.
