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ANIMATED Web Page Design

ANIMATED Web Page Design

The future has arrived, bringing a new era of possibilities.

Redefining Immersive Interactive 3D Model Website Experiences with Future Aviation

Redefining Immersive Interactive 3D

Model Website Experiences

with Future Aviation

A New Era of Future Mobility with

Dynamic Website Development

A New Era of Future Mobility with

Dynamic Website Development

A New Era of Future Mobility with

Dynamic Website Development

The SKYNOVA aircraft uses eVTOL technology, aviation-grade safety standards, and an intelligent flight control system for zero-emission, efficient, and silent flight. It adapts to business commuting, medical rescue, and logistics,

while dynamic web development showcases the eVTOL-powered smart mobility revolution.

The SKYNOVA aircraft uses eVTOL technology, aviation-grade safety standards, and an intelligent flight control system for zero-emission, efficient, and silent flight. It adapts to business commuting, medical rescue, and logistics,

while dynamic web development showcases the eVTOL-powered smart mobility revolution.

SKYNOVA Aircraft Specifications:

1. BASIC INFORMATION

Model: Six-rotor Tilt-wing + Fixed-wing eVTOL

Model: Six-rotor Tilt-wing + Fixed-wing eVTOL

Seats: 4 (including the pilot)

Seats: 4 (including the pilot)

Purpose: Urban Air Mobility (UAM), Cargo Transport, Rescue

Purpose: Urban Air Mobility (UAM), Cargo Transport, Rescue

Materials: Carbon Fiber Composite + Aluminum Alloy

Materials: Carbon Fiber Composite + Aluminum Alloy

Battery Type: High-Density Lithium Battery Pack + Backup Battery

Battery Type: High-Density Lithium Battery Pack + Backup Battery

Number of Rotors: 6 (Tilt-able)

Number of Rotors: 6 (Tilt-able)

Engine Type: Pure Electric Power (Motor + Battery Pack)

Engine Type: Pure Electric Power (Motor + Battery Pack)

Battery Capacity: 200 kWh

Battery Capacity: 200 kWh

Motor Power: 6 × 80 kW

Motor Power: 6 × 80 kW

Thrust Type: Rotor Vertical Lift + Fixed-Wing Cruise Assistance

Thrust Type: Rotor Vertical Lift + Fixed-Wing Cruise Assistance

2. SPECIFICATIONS

Fuselage Length: 7.2 m

Fuselage Length: 7.2 m

Fuselage Width: 6.8 m (Rotor Expanded)

Fuselage Width: 6.8 m (Rotor Expanded)

Fuselage Height: 2.5 m

Fuselage Height: 2.5 m

Wheelbase: 2.2 m

Wheelbase: 2.2 m

Cabin Dimensions: 2.8 m × 1.5 m × 1.3 m

Cabin Dimensions: 2.8 m × 1.5 m × 1.3 m

Cargo Compartment Volume: 0.8 m³ (Cargo can be stored in the rear)4o mini


Cargo Compartment Volume: 0.8 m³ (Cargo can be stored in the rear)4o mini


3. PERFORMANCE SPECIFICATIONS

Maximum Takeoff Weight: 1800 kg

Maximum Takeoff Weight: 1800 kg

Maximum Payload: 300 kg

Maximum Payload: 300 kg

Maximum Flight Speed: 160 km/h

Maximum Flight Speed: 160 km/h

Cruising Speed: 120 km/h

Cruising Speed: 120 km/h

Maximum Range: 180 km (under full load conditions)

Maximum Range: 180 km (under full load conditions)

Flight Altitude: 1000 - 1500 m

Flight Altitude: 1000 - 1500 m

Takeoff and Landing Method: Vertical Takeoff and Landing (VTOL) + Short Takeoff

Takeoff and Landing Method: Vertical Takeoff and Landing (VTOL) + Short Takeoff

Endurance Time: 90 - 120 minutes

Endurance Time: 90 - 120 minutes

Charging Time: 45 minutes (Fast Charge to 80%)

Charging Time: 45 minutes (Fast Charge to 80%)

4. SAFETY AND INTELLIGENT SYSTEMS

Flight Control System AI: Intelligent Flight Computing + Six-Axis Stability

Flight Control System AI: Intelligent Flight Computing + Six-Axis Stability

Obstacle Avoidance System: LiDAR + Visual AI Recognition

Obstacle Avoidance System: LiDAR + Visual AI Recognition

Landing Mode: Automatic Identification of Safe Landing Zones

Landing Mode: Automatic Identification of Safe Landing Zones

Emergency Power: Backup Battery Provides 10 Minutes of Endurance

Emergency Power: Backup Battery Provides 10 Minutes of Endurance

Parachute System: Full Aircraft Parachute (for Emergency Situations)

Parachute System: Full Aircraft Parachute (for Emergency Situations)

Autopilot Level: Level 2 (Assisted Driving)

Autopilot Level: Level 2 (Assisted Driving)

Web Design and Animation for Manned Aircraft

Web Design and Animation for Manned Aircraft

To achieve a three-dimensional presentation of the manned aircraft, the webpage design employs a model-based animation technology stack, integrating front-end graphics rendering technologies such as Three.js and GSAP. A fully interactive 3D model scene is constructed, allowing for accurate modeling of the aircraft’s structure and flight path programming. This enables the page to realistically reproduce the aircraft's motion trajectory in various flight attitudes, while simultaneously showcasing both its external framework and internal system layout.

To further enhance user immersion, the page incorporates dynamic content interaction design. By leveraging mouse event listeners and motion tracking mechanisms, textual descriptions and image content on the page respond in real-time to user mouse movements, creating seamless transitions and synchronized perspective changes. Whether exploring cockpit details or inspecting the internal structure of the engine, users enjoy a more intuitive and fluid interactive experience.

The entire animation system is developed using a modular approach, ensuring both performance efficiency and ease of future expansion and cross-platform adaptation. This exemplifies how modern web design can strike a balance between technological presentation and user experience.


To achieve a three-dimensional presentation of the manned aircraft, the webpage design employs a model-based animation technology stack, integrating front-end graphics rendering technologies such as Three.js and GSAP. A fully interactive 3D model scene is constructed, allowing for accurate modeling of the aircraft’s structure and flight path programming. This enables the page to realistically reproduce the aircraft's motion trajectory in various flight attitudes, while simultaneously showcasing both its external framework and internal system layout.

To further enhance user immersion, the page incorporates dynamic content interaction design. By leveraging mouse event listeners and motion tracking mechanisms, textual descriptions and image content on the page respond in real-time to user mouse movements, creating seamless transitions and synchronized perspective changes. Whether exploring cockpit details or inspecting the internal structure of the engine, users enjoy a more intuitive and fluid interactive experience.

The entire animation system is developed using a modular approach, ensuring both performance efficiency and ease of future expansion and cross-platform adaptation. This exemplifies how modern web design can strike a balance between technological presentation and user experience.


To achieve a three-dimensional presentation of the manned aircraft, the webpage design employs a model-based animation technology stack, integrating front-end graphics rendering technologies such as Three.js and GSAP. A fully interactive 3D model scene is constructed, allowing for accurate modeling of the aircraft’s structure and flight path programming. This enables the page to realistically reproduce the aircraft's motion trajectory in various flight attitudes, while simultaneously showcasing both its external framework and internal system layout.

To further enhance user immersion, the page incorporates dynamic content interaction design. By leveraging mouse event listeners and motion tracking mechanisms, textual descriptions and image content on the page respond in real-time to user mouse movements, creating seamless transitions and synchronized perspective changes. Whether exploring cockpit details or inspecting the internal structure of the engine, users enjoy a more intuitive and fluid interactive experience.

The entire animation system is developed using a modular approach, ensuring both performance efficiency and ease of future expansion and cross-platform adaptation. This exemplifies how modern web design can strike a balance between technological presentation and user experience.


SMART APP CONTROL WITH

Dynamic Web Development

SMART APP CONTROL WITH

Dynamic Web Development

Choosing an Interactive 3D Model Website

Means Greater Brand Competitiveness.

ROAD TRAFFIC

CONGESION

eVTOL Air Travel with 3D Interactive Effects

Showcasing the Future of Personal eVTOL Air Travel

with 3D Interactive Effects