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Skybridge Helikopter Dé' Nakkétau by Chen Xu
Skybridge Helikopter Dé' Nakkétau by Chen Xu
Skybridge Helikopter Dé' Nakkétau by Chen Xu
Skybridge Helikopter Dé' Nakkétau by Chen Xu
Skybridge Helikopter Dé' Nakkétau by Chen Xu

Salaka Futuristik · 2025

Skybridge Helikopter Dé' Nakkétau

by Chen Xu

  • A' Design Award Salaka 2025 in Futuristik
  • CLIENT: Beihang University
  • Estimated Number of Design Views: 200,214
  • Verification code DC9F2670FF · Verify this award
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About Skybridge Helikopter Dé' Nakkétau

Skybridge iyanaritu séddi helikopter dé' nakkétau iya ridésaingngé untu' pattiwi barang polé ri kappala' lao ri pulo-pulo iya dé'é nappunnai pelabuhan. Bentu' kalé-na maccowé ri bentu' malicu'na olokolo' tasi'é untu' pakurangi tahangeng anging sibawa apakéang énergi. Papeng badanna riébbu séddi mi polé ri bahan komposit, na struktur ri lalenna makkéguna serat karbon angkanna maringeng 32 persén. Sistem gantungan maéga kai' sibawa mesin penggulung ri awana naulléi tiwi barang 260 kilogram ri atanréng narapi 6.000 méter sibawa ri anging 12 méter tungke' sikonna. Sining pakkarawa ri kappala' pabbantué makkarawai helikopteré polé mabéla, ripimping ri kaméra sibawa sénsor iya engkaé ri yasé'na.

About the A' Design Award Salaka

Skybridge Helikopter Dé' Nakkétau iyanaritu pakoro A' Design Award Salaka, pakalebbi iya malompo tongeng iya ripabbere ri desain tingkak pole, cantik sibawa mappakita. Pakoro Salaka iyanaritu karya iya macennning tongeng sibawa kreatif iya mappakita keahlian, bakat sibawa ketajaman pikkiran tau mabbuat. Skybridge Helikopter Dé' Nakkétau ripakkirangngi mancaji karya iya magello, mancaji pakkitaang, profesional sibawa inovatif iya dalleng. Desain pakoro A' Design Award Salaka iyae iyanaritu penemuan iya lebbi riissengngi sibawa ripuji, iya pawangekeng sibawa mappalaong wates seni, sains, desain sibawa teknologi. Skybridge Helikopter Dé' Nakkétau iyanaritu ciptaan iya riennengi tau maega, iya mappabbura keinginan, mappabbere perasaan makessing sibawa mappabbentuk ketakjuban.

Press Kit

Unique Properties
Designed for cargo delivery to portless islands, this helicopter overcomes geographical barriers. Its biomechanically optimized airframe, multi-hook suspension, and intelligent undercarriage winches achieve a 260kg payload capacity—operating reliably at 6,000m altitude and 12m/s winds, redefining aerial logistics for extreme environments.
Dimensions & Packaging
with rotor: 3786X3600X1330mm
without rotor:2660X1054X950mm
Tags
Civil Drone, Product Design, Remotely Piloted Aircraft, Unmanned Helicopter, Maritime Transport
Production Technology
The manufacturing process integrates the modular assembly concept of the naval industry, and adopts composite materials to realize one-piece molding of the fuselage covering parts. The internal structure uses carbon fiber materials to achieve a 32% breakthrough in lightweight, which significantly improves the carrying efficiency. The streamlined aerodynamic design is modeled after marine life, which ensures the structural strength and effectively reduces the operational energy consumption.
Design Challenge
Balancing the societal need for efficient island resupply with minimizing environmental impact and complying with UAV regulations proved challenging. Developing a safe, reliable unmanned system with the required payload and capture capabilities required extensive research and design iterations.
Research
This design analyzes the efficient movement mechanism of marine organisms through bionic methods, focusing on the hydrodynamic curves and their energy transfer modes when fish swim. Combined with computational fluid dynamics simulation and 3D scanning modeling technology, the bio-evolutionary advantages of marine organisms, such as drag-reducing characteristics, are transformed into UAV engineering parameters.
Inspiration
This unmanned helicopter is designed for cargo transport from ships to portless islands. Maritime operational demands inspired its biomimetic approach, translating marine organisms' hydrodynamic efficiency into aerospace engineering. The streamlined fuselage curvature and rotor system synergy originate from analyzing oceanic lifeforms' drag-resistant structures.
Project Duration
The project started in January 2024 in Beijing and finished in February 2025 in Beijing.
Operation Flow
Operators on a support vessel remotely control the helicopter, using onboard cameras and sensors for real-time visual feedback. The operators identify and control helicopter to capture the cargo, providing a secure and damage-free delivery method compared to direct airdrops.
Image Credits
Image #1: Creator sxdesign, 2025. Optional Image #1: Creator sxdesign, 2025. Optional Image #2: Creator sxdesign, 2025. Optional Image #3: Creator sxdesign, 2025. Optional Image #4: Creator sxdesign, 2025.

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