Minghu Sculpture
Minghu Sculpture
Minghu Sculpture
Minghu Sculpture
■ WORK

Minghu Sculpture

A kinetic landmark at Minghu Lake. Where industrial precision meets fluid artistry, celebrating the journey from raw steel to celestial motion.

SCROLL

A SYNTHESIS OF WIND, LIGHT, AND INDUSTRIAL PRECISION.

The Minghu Sculpture stands as a monumental kinetic installation designed to interact with the atmospheric conditions of Jinan. It explores the fluid boundaries between heavy metal fabrication and ethereal, natural forces.

MATERIAL 316L Stainless Steel
FINISH 8K Mirror Polished
DIMENSIONS 12.4m x 8.2m
LOCATION Jinan, China
Minghu Sculpture
YE FENG
■ THE ARTIST

YE FENG

MASTER SCULPTOR

BIOGRAPHY

With over two decades dedicated to monumental public art, Wang Zhe bridges the gap between digital parametricism and physical metalwork, redefining civic spaces globally.

CORE PHILOSOPHY

"DYNAMIC TRANSFORMATION"

A sculpture is not a static object; it is a time-based performance dictated by the environment. It must breathe with the wind and react to shifts in light.

INTERSECTIONS SERIES KINETIC CONTACT US
■ PHASE 01

DESIGN & BLUEPRINT

Computational Geometry

Computational Geometry

Developing the parametric model to ensure structural integrity while maintaining the organic curves of the vision.

Kinetic Simulation

Kinetic Simulation

Wind-tunnel digital simulations to optimize the movement of the 48 articulating blades.

Drafting the Soul

Drafting the Soul

Translating artistic sketches into precise fabrication shop drawings for our artisan team.

■ EXPERIMENTAL PHASE

MODEL DEDUCTION

The design deduction and experimental process of the wind-driven blades (iterative deduction, elimination, and final selection of various blade styles).

1,200
HOURS WELDED
820
KG OF STEEL
■ WIND TURBINE SIZE
WIND TURBINE SIZE
Lighting Step

Illumination Tests

Evaluating multiple light sources for optimal brightness and color temperature.

Visual Impact

Assessing how different lighting styles interact with the stainless steel surfaces.

■ EXPERIMENTAL PHASE

LIGHTING
DEDUCTION

01

ITERATIVE DEDUCTION

Exploring various lighting styles and configurations to find the optimal interplay.

02

RIGOROUS ELIMINATION

Systematically testing and discarding lighting options that fail to meet requirements.

03

FINAL SELECTION

Choosing the ultimate lighting design that perfectly complements the kinetic movement.

■ ILLUMINATION SHOWCASE

LIGHTING DISPLAY EFFECTS

CRAFTSMANSHIP DEMONSTRATION

Through the analysis of drawings combined with on-site inspection, a specialized and customized lighting installation plan is developed.

OVERALL INSTALLATION PROCESS
OVERALL INSTALLATION PROCESS
OVERALL INSTALLATION PROCESS
■ MECHANICAL TURNTABLE UNIT

TECHNOLOGY SIMULATION

Rotation device diagram
Phase 01
01

Rotation device diagram

360-degree overall rotation system engineered for seamless kinetic motion. The robust foundation ensures fluid movement under varying wind conditions, minimizing friction and energy loss to provide decades of maintenance-free operation.

360°

Rotation Axis

24/7

Continuous Operation

Model construction & force calculation
Phase 02
02

Model construction & force calculation

Graphical and digital display of calculation models and the force calculation process. We simulate structural stress points to optimize material thickness and guarantee structural integrity against maximum local environmental loads.

1.2M

Nodes Computed

100%

Safety Margin

Form & force structure
Phase 03
03

Form & force structure

Analysis of the form and turntable force state, and the internal turntable mechanical structure. Fine-tuning the balance between aesthetic elegance and high-grade mechanical endurance, delivering perfection down to the millimeter.

50+

Wind Scenarios

99.8%

Stability Rating

■ ON-SITE EXECUTION

CONSTRUCTION
& INSTALLATION

Comprehensive documentation of the assembly process, demonstrating the seamless integration of artistic vision and engineering precision in real-world conditions.

45
DAYS ON SITE
12
EXPERT TECHS
Installation Video Cover
Foundation Laying
Step 01

Foundation Laying

Securing the mechanical base deep within the structural footprint to withstand high wind loads and ensure perfect leveling.

Structural Support
Step 02

Structural Support

Hoisting the central 316L steel spine using dual crane coordination to guarantee absolute vertical precision under challenging conditions.

Panel Attachment
Step 03

Panel Attachment

Precision mounting of mirror-polished articulating blades and integration of heavy-duty, waterproof electrical systems.

THE CONCLUSION