Xiaomi Foldable vs iPhone Concept Specification Studio & Form Factor Simulator

Interactive mechanical teardown and 2D physics cross-section tool comparing Xiaomi’s rival hardware concept against rumored Apple foldable engineering architectures.

Mechanical Cross-Section Physics

Finite Element Stress: Active Waterdrop Cam Mode
Bending Radius: 3.20 mm
Tensile Stress: 142 MPa
Chassis Gap: 0.02 mm
Fold Angle Articulation Scrub 0° (Flat Unfolded)
Pocketability Score
91
Thinness & volume index (0–100)
Crease Visibility
Ultra-Low
Depth: 38 µm @ 3.2mm hinge
Structural Integrity
8.8
Hinge torque & chassis rigidity

Hardware Form-Factor Controls

4.65 mm

Chassis single-wing depth

3.2 mm

Internal teardown bend curvature

38 µm

Optical micro-indentation on UTG

5100 mAh

Silicon-Carbon dual anode cells

Specification Dimension Xiaomi Rival Concept Apple Foldable Rumor
Unfolded Thickness 4.65 mm ~4.5 mm Patent/Supply
Folded Total Profile 9.32 mm ~9.00 mm Kuo Spec
Internal Hinge Radius 3.20 mm ~3.00 mm (Liquidmetal)
Crease Depth & Rating 38 µm (Ultra-Low) <45 µm (Speculative)
Battery Configuration 5100 mAh (Dual Si-C) ~5,400–5,800 mAh
Cover Screen Ratio 20:9 (5.38" / 6.56" Sub) ~5.5" Exterior Display
SoC Architecture Snapdragon 8 Gen Elite / Xring O3 Apple A20 Bionic (2nm)

Engineering Tradeoff Insight

With a 3.2mm hinge radius and 4.65mm chassis thickness, the teardown architecture disperses mechanical shear stress beneath 150 MPa during complete 180° closure, preserving 38 µm crease fidelity without causing hinge bulging.

Verified Industry Context & Disclosures

Simulations and baseline parameters reference reporting by MacRumors and supply-chain analysis regarding Xiaomi's next-generation foldables engineered to preempt Apple's entry into the ultra-thin folding phone segment.

  • Source: MacRumors Announcement Report
  • Disclosures: Hardware metrics reflect representative engineering concept models and rumored Apple supply-chain leaks.
  • Physics Engine: Matter.js kinematic spline calculation and Finite Element mechanical stress projection.