Difference between revisions of "Iso-Plane"

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<!doctype html>
+
__NOTOC__
<html lang="fr">
 
<head>
 
  <meta charset="utf-8" />
 
  <meta name="viewport" content="width=device-width, initial-scale=1" />
 
  <title>ISO-Plane™ — Container Air Logistics</title>
 
  <meta name="description" content="ISO-Plane™ est un projet aéronautique collaboratif conçu pour transporter un conteneur ISO 20 pieds avec chargement autonome." />
 
  <style>
 
    :root {
 
      --bg: #07111f;
 
      --bg-2: #0b1d33;
 
      --surface: rgba(255, 255, 255, 0.075);
 
      --surface-2: rgba(255, 255, 255, 0.12);
 
      --text: #eef6ff;
 
      --muted: #a8bdd2;
 
      --line: rgba(255, 255, 255, 0.14);
 
      --accent: #f5b83b;
 
      --accent-2: #36d1dc;
 
      --green: #5be49b;
 
      --danger: #ff6b6b;
 
      --shadow: 0 24px 80px rgba(0, 0, 0, 0.35);
 
      --radius: 26px;
 
      --max: 1180px;
 
      font-family: Inter, ui-sans-serif, system-ui, -apple-system, BlinkMacSystemFont, "Segoe UI", sans-serif;
 
    }
 
  
    * { box-sizing: border-box; }
+
= ISO-Plane™ =
    html { scroll-behavior: smooth; }
 
    body {
 
      margin: 0;
 
      background:
 
        radial-gradient(circle at 20% 0%, rgba(54, 209, 220, 0.16), transparent 28%),
 
        radial-gradient(circle at 80% 12%, rgba(245, 184, 59, 0.14), transparent 30%),
 
        linear-gradient(180deg, #07111f 0%, #0a1728 45%, #07111f 100%);
 
      color: var(--text);
 
      overflow-x: hidden;
 
    }
 
  
    a { color: inherit; text-decoration: none; }
+
{| style="width:100%; border:1px solid #d6e2ef; border-radius:14px; background:#f7fbff; padding:18px; margin-bottom:22px;"
    img { max-width: 100%; display: block; }
+
|-
 +
| style="width:62%; vertical-align:top; padding:10px 18px;" |
 +
<span style="font-size:115%; color:#1f5f8b; font-weight:bold; letter-spacing:0.04em; text-transform:uppercase;">Container Air Logistics</span>
  
    .page-shell {
+
<span style="font-size:260%; font-weight:bold; line-height:1.1; color:#102a43;">One container. One aircraft. One mission.</span>
      position: relative;
 
      min-height: 100vh;
 
    }
 
  
    .page-shell::before {
+
'''ISO-Plane™''' is an open collaborative aerospace project developing a dedicated light cargo aircraft capable of transporting a single '''20-foot ISO container''' with autonomous loading and unloading.
      content: "";
 
      position: fixed;
 
      inset: 0;
 
      pointer-events: none;
 
      background-image:
 
        linear-gradient(rgba(255,255,255,0.035) 1px, transparent 1px),
 
        linear-gradient(90deg, rgba(255,255,255,0.035) 1px, transparent 1px);
 
      background-size: 64px 64px;
 
      mask-image: linear-gradient(to bottom, rgba(0,0,0,0.85), transparent 76%);
 
      z-index: -1;
 
    }
 
  
    .container {
+
Designed around the container — not around conventional palletized cargo — ISO-Plane aims to offer a new operational standard for fast, infrastructure-light air logistics.
      width: min(100% - 34px, var(--max));
 
      margin-inline: auto;
 
    }
 
  
    .topbar {
+
'''The aircraft concept targets:''' direct transport of one ISO container, autonomous cargo handling from ground or truck trailer, operation from regular landing fields, and multi-role mission capability.
      position: sticky;
 
      top: 0;
 
      z-index: 50;
 
      backdrop-filter: blur(18px);
 
      background: rgba(7, 17, 31, 0.72);
 
      border-bottom: 1px solid var(--line);
 
    }
 
  
    .nav {
+
[https://www.iso-plane.com www.iso-plane.com]
      height: 76px;
 
      display: flex;
 
      align-items: center;
 
      justify-content: space-between;
 
      gap: 24px;
 
    }
 
  
    .brand {
+
| style="width:38%; vertical-align:middle; padding:10px;" |
      display: flex;
+
{| class="wikitable" style="width:100%; margin:0; background:white;"
      align-items: center;
+
! style="background:#102a43; color:white; text-align:left;" colspan="2" | Key Figures
      gap: 12px;
+
|-
      font-weight: 800;
+
| '''Container''' || 1 × 20-foot ISO container
      letter-spacing: 0.03em;
+
|-
    }
+
| '''Payload target''' || Up to 8 tons
 +
|-
 +
| '''Range target''' || Up to 6,000 km
 +
|-
 +
| '''Engines''' || 2 × Pratt & Whitney PW150A
 +
|-
 +
| '''Crew''' || 2 pilots
 +
|-
 +
| '''Development status''' || TRL3 in progress
 +
|}
 +
|}
  
    .brand-mark {
+
----
      width: 42px;
 
      height: 42px;
 
      border-radius: 14px;
 
      display: grid;
 
      place-items: center;
 
      background: linear-gradient(135deg, var(--accent), #ffe38f);
 
      color: #07111f;
 
      box-shadow: 0 12px 38px rgba(245, 184, 59, 0.28);
 
      font-weight: 900;
 
    }
 
  
    .brand small {
+
== Executive Overview ==
      display: block;
 
      color: var(--muted);
 
      font-size: 0.72rem;
 
      font-weight: 600;
 
      letter-spacing: 0.16em;
 
      text-transform: uppercase;
 
      margin-top: 2px;
 
    }
 
  
    .nav-links {
+
The '''ISO-Plane''' is a specialized cargo aircraft concept designed to solve a structural gap in air freight: transporting a standard ISO container without requiring a large military-class aircraft or heavy ground loading infrastructure.
      display: flex;
 
      align-items: center;
 
      gap: 24px;
 
      color: var(--muted);
 
      font-size: 0.94rem;
 
    }
 
  
    .nav-links a:hover { color: var(--text); }
+
Today, aircraft capable of carrying a full ISO container are generally large platforms requiring substantial logistics support. Smaller cargo aircraft are efficient for regional operations but are not built around ISO container geometry. ISO-Plane addresses this gap by placing the 20-foot container at the center of the aircraft architecture.
  
    .cta-small {
+
{| style="width:100%; border-spacing:14px; margin:18px 0;"
      display: inline-flex;
+
| style="width:33%; vertical-align:top; border:1px solid #d6e2ef; border-radius:12px; background:#ffffff; padding:16px;" |
      align-items: center;
+
'''Container-first architecture'''
      justify-content: center;
 
      padding: 11px 18px;
 
      border-radius: 999px;
 
      background: rgba(245, 184, 59, 0.14);
 
      border: 1px solid rgba(245, 184, 59, 0.38);
 
      color: #ffe4a5;
 
      font-weight: 700;
 
    }
 
  
    .hero {
+
The cargo bay, ventral door, lifting system and fuselage diameter are designed around one 20-foot ISO container.
      padding: 86px 0 58px;
 
      position: relative;
 
    }
 
  
    .hero-grid {
+
| style="width:33%; vertical-align:top; border:1px solid #d6e2ef; border-radius:12px; background:#ffffff; padding:16px;" |
      display: grid;
+
'''Autonomous handling'''
      grid-template-columns: minmax(0, 1.03fr) minmax(360px, 0.97fr);
 
      gap: 44px;
 
      align-items: center;
 
    }
 
  
    .eyebrow {
+
Loading and unloading can be performed from the ground or directly from a truck trailer using onboard mechanisms.
      display: inline-flex;
 
      align-items: center;
 
      gap: 10px;
 
      padding: 9px 13px;
 
      border: 1px solid var(--line);
 
      border-radius: 999px;
 
      background: rgba(255, 255, 255, 0.06);
 
      color: #cde5fb;
 
      font-size: 0.88rem;
 
      font-weight: 700;
 
    }
 
  
    .pulse {
+
| style="width:33%; vertical-align:top; border:1px solid #d6e2ef; border-radius:12px; background:#ffffff; padding:16px;" |
      width: 9px;
+
'''Multi-role platform'''
      height: 9px;
 
      border-radius: 50%;
 
      background: var(--green);
 
      box-shadow: 0 0 0 7px rgba(91, 228, 155, 0.14);
 
    }
 
  
    h1 {
+
The same airframe can support logistics, humanitarian operations, firefighting, medical modules and special missions.
      font-size: clamp(3.15rem, 7vw, 6.65rem);
+
|}
      line-height: 0.89;
 
      margin: 22px 0 22px;
 
      letter-spacing: -0.075em;
 
    }
 
  
    .hero h1 span {
+
----
      color: transparent;
 
      background: linear-gradient(90deg, #fff, #a7dfff 52%, #ffd36f);
 
      background-clip: text;
 
      -webkit-background-clip: text;
 
    }
 
  
    .lead {
+
== Product Positioning ==
      color: var(--muted);
 
      font-size: clamp(1.08rem, 2vw, 1.28rem);
 
      line-height: 1.65;
 
      max-width: 660px;
 
      margin: 0 0 30px;
 
    }
 
  
    .hero-actions {
+
{| style="width:100%; border:1px solid #d6e2ef; border-radius:14px; background:#ffffff; padding:16px;"
      display: flex;
+
|-
      flex-wrap: wrap;
+
| style="width:50%; vertical-align:top; padding:12px 18px;" |
      gap: 14px;
+
=== The Market Gap ===
      margin: 34px 0;
 
    }
 
  
    .button {
+
* Large military aircraft can transport ISO containers, but they are expensive, heavy and infrastructure-intensive.
      display: inline-flex;
+
* Smaller regional aircraft cannot accommodate a standard 20-foot ISO container as a native cargo unit.
      align-items: center;
+
* Conventional air freight requires palletization, specialized loaders and additional ground operations.
      justify-content: center;
 
      gap: 10px;
 
      padding: 15px 22px;
 
      border-radius: 999px;
 
      font-weight: 800;
 
      transition: transform 0.22s ease, box-shadow 0.22s ease, border-color 0.22s ease;
 
      border: 1px solid transparent;
 
      cursor: pointer;
 
    }
 
  
    .button:hover { transform: translateY(-2px); }
+
| style="width:50%; vertical-align:top; padding:12px 18px;" |
 +
=== The ISO-Plane Answer ===
  
    .button-primary {
+
* Direct air transport of one standard 20-foot ISO container.
      color: #07111f;
+
* Autonomous loading and unloading without cranes or external loaders.
      background: linear-gradient(135deg, var(--accent), #ffe590);
+
* Operation from regular landing fields.
      box-shadow: 0 18px 50px rgba(245, 184, 59, 0.25);
+
* Two-pilot crew with automated cargo handling.
    }
+
* Mission flexibility through containerized modules.
 +
|}
  
    .button-secondary {
+
'''ISO-Plane proposes a new paradigm:''' containerized air logistics with minimal ground infrastructure.
      color: var(--text);
 
      background: rgba(255, 255, 255, 0.07);
 
      border-color: var(--line);
 
    }
 
  
    .trust-row {
+
----
      display: grid;
 
      grid-template-columns: repeat(4, minmax(110px, 1fr));
 
      gap: 12px;
 
      max-width: 670px;
 
    }
 
  
    .metric {
+
== Mission Applications ==
      padding: 17px 16px;
 
      border: 1px solid var(--line);
 
      border-radius: 20px;
 
      background: rgba(255, 255, 255, 0.055);
 
    }
 
  
    .metric strong {
+
{| class="wikitable" style="width:100%;"
      display: block;
+
! style="background:#102a43; color:white;" | Mission
      font-size: 1.4rem;
+
! style="background:#102a43; color:white;" | Operational Value
      line-height: 1.1;
+
|-
      color: #fff;
+
| '''Logistics Operations''' || Rapid movement of high-value, urgent or strategic containerized cargo to remote or constrained locations.
      letter-spacing: -0.04em;
+
|-
    }
+
| '''Humanitarian Aid / Relief Operations''' || Deployment of medical, shelter, water, energy or communications modules after disasters.
 +
|-
 +
| '''Aerial Firefighting''' || Potential water-bombing capability using a dedicated containerized water module.
 +
|-
 +
| '''Special Missions / Defense Operations''' || Tactical transport of modular systems, sensitive cargo or mobile support infrastructure.
 +
|}
  
    .metric span {
+
<gallery mode="packed" heights="240">
      display: block;
+
File:Iso plane loading system.png|Autonomous loading system
      margin-top: 7px;
+
File:Internal loading.png|Internal cargo integration
      color: var(--muted);
+
File:Iso plane with mediacal container.png|Medical container mission configuration
      font-size: 0.84rem;
+
</gallery>
    }
 
  
    .hero-visual {
+
----
      position: relative;
 
      min-height: 560px;
 
    }
 
  
    .visual-card {
+
== Key Technical Characteristics ==
      position: absolute;
 
      inset: 0;
 
      border-radius: 38px;
 
      border: 1px solid var(--line);
 
      background:
 
        linear-gradient(160deg, rgba(255,255,255,0.13), rgba(255,255,255,0.04)),
 
        radial-gradient(circle at 78% 18%, rgba(245,184,59,0.22), transparent 28%),
 
        radial-gradient(circle at 20% 86%, rgba(54,209,220,0.18), transparent 28%);
 
      box-shadow: var(--shadow);
 
      overflow: hidden;
 
    }
 
  
    .runway {
+
{| class="wikitable" style="width:100%;"
      position: absolute;
+
! style="background:#102a43; color:white;" | Parameter
      left: -8%;
+
! style="background:#102a43; color:white;" | Value
      right: -8%;
+
|-
      bottom: 54px;
+
| '''Container''' || 1 × 20-foot ISO container, ISO 668 standard
      height: 120px;
+
|-
      transform: perspective(680px) rotateX(62deg);
+
| '''Payload''' || Up to 8 tons
      background:
+
|-
        repeating-linear-gradient(90deg, transparent 0 76px, rgba(255,255,255,0.18) 76px 92px),
+
| '''Estimated MTOW''' || Approximately 30 tons
        linear-gradient(180deg, rgba(255,255,255,0.18), rgba(255,255,255,0.04));
+
|-
      border-top: 1px solid rgba(255,255,255,0.25);
+
| '''Range''' || Up to 6,000 km, mission dependent
      opacity: 0.75;
+
|-
    }
+
| '''Engines''' || 2 × Pratt & Whitney PW150A turboprop engines
 +
|-
 +
| '''Wing configuration''' || High wing
 +
|-
 +
| '''Architecture''' || Twin-boom configuration
 +
|-
 +
| '''Landing gear''' || Q400-derived, retracting into engine nacelles
 +
|-
 +
| '''Cargo bay''' || Pressurized cargo compartment
 +
|-
 +
| '''Cargo system''' || Ventral three-panel cargo door and robotic lifting arms
 +
|-
 +
| '''Crew''' || Two pilots
 +
|}
  
    .aircraft {
+
----
      position: absolute;
 
      width: min(92%, 560px);
 
      height: 280px;
 
      left: 50%;
 
      top: 45%;
 
      transform: translate(-50%, -50%);
 
      filter: drop-shadow(0 34px 40px rgba(0,0,0,0.45));
 
    }
 
  
    .fuselage {
+
== Cargo Handling System ==
      position: absolute;
 
      left: 8%;
 
      right: 8%;
 
      top: 42%;
 
      height: 68px;
 
      border-radius: 999px 999px 36px 36px;
 
      background: linear-gradient(180deg, #ecf7ff, #89a8bd 58%, #45657c);
 
      box-shadow: inset 0 -9px 18px rgba(0,0,0,0.22);
 
    }
 
  
    .nose {
+
The defining innovation of the ISO-Plane is its integrated autonomous container handling system.
      position: absolute;
 
      left: 2%;
 
      top: 42%;
 
      width: 130px;
 
      height: 68px;
 
      border-radius: 70% 0 0 70%;
 
      background: linear-gradient(180deg, #f9fdff, #789db7);
 
    }
 
  
    .tail {
+
=== Ventral Cargo Door ===
      position: absolute;
 
      right: 3%;
 
      top: 28%;
 
      width: 120px;
 
      height: 120px;
 
      clip-path: polygon(0 44%, 72% 0, 84% 16%, 42% 58%, 100% 100%, 63% 100%);
 
      background: linear-gradient(135deg, #d9f1ff, #6b8aa3);
 
    }
 
  
    .wing {
+
The aircraft features a '''three-panel ventral opening mechanism''' designed to provide direct access to the container from below the fuselage.
      position: absolute;
 
      left: 17%;
 
      right: 12%;
 
      top: 24%;
 
      height: 64px;
 
      transform: skewX(-18deg);
 
      border-radius: 16px 70px 70px 16px;
 
      background: linear-gradient(180deg, #d8f1ff, #5d829d);
 
      box-shadow: inset 0 -10px 18px rgba(0,0,0,0.22);
 
    }
 
  
    .engine {
+
This system enables:
      position: absolute;
 
      top: 31%;
 
      width: 78px;
 
      height: 46px;
 
      border-radius: 40px;
 
      background: linear-gradient(180deg, #20384d, #07111f);
 
      border: 1px solid rgba(255,255,255,0.25);
 
    }
 
  
    .engine::before {
+
* Ground-level loading and unloading.
      content: "";
+
* Direct truck-to-aircraft transfer.
      position: absolute;
+
* Compatibility with a pressurized cargo bay architecture.
      inset: 9px;
+
* Preservation of structural continuity through separated opening functions.
      border-radius: 50%;
 
      border: 2px solid rgba(255,255,255,0.28);
 
      background: radial-gradient(circle, #94dfff 0 16%, transparent 18%);
 
    }
 
  
    .engine.left { left: 30%; }
+
=== Robotic Lifting Arms ===
    .engine.right { right: 25%; }
 
  
    .container-box {
+
The container is handled by onboard mechanized systems:
      position: absolute;
 
      left: 50%;
 
      bottom: 118px;
 
      width: 250px;
 
      height: 86px;
 
      transform: translateX(-50%);
 
      border-radius: 14px;
 
      background:
 
        repeating-linear-gradient(90deg, rgba(0,0,0,0.13) 0 3px, transparent 3px 22px),
 
        linear-gradient(135deg, #f0b544, #d66f2a);
 
      border: 1px solid rgba(255,255,255,0.28);
 
      box-shadow: inset 0 -10px 18px rgba(0,0,0,0.22), 0 18px 35px rgba(0,0,0,0.35);
 
    }
 
  
    .container-box::after {
+
* Four robotic lifting arms.
      content: "20' ISO CONTAINER";
+
* ISO corner twist-lock interface.
      position: absolute;
+
* Autonomous alignment and positioning logic.
      inset: 0;
+
* Backup system using four electric winches.
      display: grid;
 
      place-items: center;
 
      color: rgba(7, 17, 31, 0.74);
 
      font-weight: 900;
 
      letter-spacing: 0.12em;
 
      font-size: 0.76rem;
 
    }
 
  
    .lift-line {
+
'''Loading scenarios include:'''
      position: absolute;
 
      bottom: 206px;
 
      width: 2px;
 
      height: 64px;
 
      background: linear-gradient(180deg, transparent, rgba(255,255,255,0.6));
 
    }
 
    .lift-line.a { left: 35%; }
 
    .lift-line.b { left: 45%; }
 
    .lift-line.c { right: 45%; }
 
    .lift-line.d { right: 35%; }
 
  
    .floating-label {
+
# Container positioned directly on the ground.
      position: absolute;
+
# Container positioned on a truck trailer behind the aircraft.
      padding: 12px 14px;
+
# Aircraft or truck alignment followed by automatic lifting, locking and securing.
      border: 1px solid var(--line);
 
      border-radius: 18px;
 
      background: rgba(7, 17, 31, 0.7);
 
      backdrop-filter: blur(16px);
 
      box-shadow: 0 16px 35px rgba(0,0,0,0.25);
 
      color: #dff7ff;
 
      font-size: 0.86rem;
 
    }
 
  
    .floating-label strong { color: #fff; display: block; margin-bottom: 4px; }
+
{| style="width:100%; border:1px solid #d6e2ef; border-radius:14px; background:#f7fbff; padding:16px; margin-top:18px;"
    .floating-label.one { top: 34px; right: 34px; }
+
|-
    .floating-label.two { left: 28px; bottom: 34px; }
+
| style="width:25%; vertical-align:top; padding:12px;" |
 +
'''1. Align'''
  
    section { padding: 82px 0; }
+
Aircraft and container are aligned using the selected ground scenario.
  
    .section-head {
+
| style="width:25%; vertical-align:top; padding:12px;" |
      display: flex;
+
'''2. Open'''
      justify-content: space-between;
 
      align-items: end;
 
      gap: 24px;
 
      margin-bottom: 34px;
 
    }
 
  
    .section-kicker {
+
Rear and ventral cargo doors open to release the container access volume.
      color: var(--accent);
 
      font-weight: 900;
 
      text-transform: uppercase;
 
      letter-spacing: 0.18em;
 
      font-size: 0.78rem;
 
      margin-bottom: 12px;
 
    }
 
  
    h2 {
+
| style="width:25%; vertical-align:top; padding:12px;" |
      margin: 0;
+
'''3. Lock & Lift'''
      font-size: clamp(2rem, 4vw, 3.35rem);
 
      line-height: 1;
 
      letter-spacing: -0.055em;
 
    }
 
  
    .section-head p {
+
Robotic arms connect to ISO corners and lift the container.
      margin: 0;
 
      max-width: 480px;
 
      color: var(--muted);
 
      line-height: 1.65;
 
    }
 
  
    .grid-3 {
+
| style="width:25%; vertical-align:top; padding:12px;" |
      display: grid;
+
'''4. Secure'''
      grid-template-columns: repeat(3, 1fr);
 
      gap: 18px;
 
    }
 
  
    .card {
+
The container is positioned, locked and prepared for flight.
      border: 1px solid var(--line);
+
|}
      border-radius: var(--radius);
 
      background: linear-gradient(180deg, rgba(255,255,255,0.095), rgba(255,255,255,0.045));
 
      padding: 26px;
 
      box-shadow: 0 18px 50px rgba(0,0,0,0.18);
 
      position: relative;
 
      overflow: hidden;
 
    }
 
  
    .card::before {
+
----
      content: "";
 
      position: absolute;
 
      inset: 0;
 
      background: radial-gradient(circle at 12% 0%, rgba(54,209,220,0.10), transparent 36%);
 
      pointer-events: none;
 
    }
 
  
    .icon {
+
== Aircraft Architecture ==
      width: 48px;
 
      height: 48px;
 
      border-radius: 17px;
 
      display: grid;
 
      place-items: center;
 
      background: rgba(245,184,59,0.16);
 
      border: 1px solid rgba(245,184,59,0.26);
 
      color: #ffe4a5;
 
      margin-bottom: 18px;
 
      font-size: 1.35rem;
 
    }
 
  
    .card h3 {
+
=== Engines ===
      position: relative;
 
      margin: 0 0 10px;
 
      font-size: 1.26rem;
 
      letter-spacing: -0.03em;
 
    }
 
  
    .card p,
+
The selected powerplant is the '''Pratt & Whitney PW150A''' turboprop, chosen for its compatibility with the targeted aircraft class and its use on the Q400 platform.
    .card li {
 
      position: relative;
 
      color: var(--muted);
 
      line-height: 1.65;
 
    }
 
  
    .card p { margin: 0; }
+
Key advantages:
    .card ul { margin: 14px 0 0; padding-left: 18px; }
 
  
    .split {
+
* Proven turboprop architecture.
      display: grid;
+
* Power level compatible with an estimated 30-ton MTOW class.
      grid-template-columns: 0.92fr 1.08fr;
+
* Integration opportunity with Q400-derived systems.
      gap: 22px;
 
      align-items: stretch;
 
    }
 
  
    .problem-panel {
+
=== Landing Gear ===
      border: 1px solid rgba(255,255,255,0.16);
 
      border-radius: 32px;
 
      padding: 32px;
 
      background: linear-gradient(135deg, rgba(255,255,255,0.10), rgba(255,255,255,0.04));
 
    }
 
  
    .problem-panel h3 {
+
The main landing gear is derived from the Bombardier Q400.
      margin: 0 0 18px;
 
      font-size: 1.7rem;
 
      letter-spacing: -0.04em;
 
    }
 
  
    .comparison-list {
+
'''Design principle:''' the main landing gear retracts into the nacelles below the high-mounted wings to maintain clearance with the cargo bay.
      display: grid;
 
      gap: 13px;
 
      margin: 0;
 
      padding: 0;
 
      list-style: none;
 
    }
 
  
    .comparison-list li {
+
This configuration:
      display: flex;
 
      gap: 12px;
 
      padding: 14px;
 
      border-radius: 18px;
 
      background: rgba(255,255,255,0.055);
 
      color: var(--muted);
 
      line-height: 1.5;
 
    }
 
  
    .comparison-list b { color: #fff; }
+
* Preserves the ventral cargo opening.
 +
* Avoids interference with the container bay.
 +
* Reduces landing gear leg length compared with a lower fuselage installation.
 +
* Supports the high-wing cargo architecture.
  
    .check, .cross {
+
=== Wing & Structure ===
      width: 24px;
 
      height: 24px;
 
      flex: 0 0 24px;
 
      border-radius: 50%;
 
      display: grid;
 
      place-items: center;
 
      font-size: 0.8rem;
 
      font-weight: 900;
 
    }
 
  
    .check { background: rgba(91,228,155,0.16); color: var(--green); }
+
The ISO-Plane architecture includes:
    .cross { background: rgba(255,107,107,0.14); color: var(--danger); }
 
  
    .mission-grid {
+
* High-wing configuration for ground and container clearance.
      display: grid;
+
* Twin-boom layout.
      grid-template-columns: repeat(4, 1fr);
+
* Central wing box designed for structural continuity.
      gap: 16px;
+
* Pressurized cockpit and cargo compartment.
    }
+
* Fuselage diameter sized for ISO container integration.
  
    .mission-card {
+
----
      min-height: 285px;
 
      border: 1px solid var(--line);
 
      border-radius: 30px;
 
      padding: 24px;
 
      display: flex;
 
      flex-direction: column;
 
      justify-content: flex-end;
 
      background:
 
        linear-gradient(180deg, transparent, rgba(7,17,31,0.88)),
 
        radial-gradient(circle at 50% 10%, rgba(54,209,220,0.24), transparent 34%),
 
        rgba(255,255,255,0.06);
 
      overflow: hidden;
 
      position: relative;
 
    }
 
  
    .mission-card::before {
+
== Technology Review ==
      content: attr(data-number);
 
      position: absolute;
 
      top: 16px;
 
      left: 20px;
 
      color: rgba(255,255,255,0.13);
 
      font-size: 4.2rem;
 
      line-height: 1;
 
      font-weight: 900;
 
      letter-spacing: -0.08em;
 
    }
 
  
    .mission-card h3 { margin: 0 0 8px; font-size: 1.17rem; }
+
{| class="wikitable" style="width:100%;"
    .mission-card p { margin: 0; color: var(--muted); line-height: 1.55; }
+
! style="background:#102a43; color:white;" | Technology Block
 +
! style="background:#102a43; color:white;" | Purpose
 +
! style="background:#102a43; color:white;" | Status
 +
|-
 +
| '''20-foot container integration''' || Native cargo unit for the aircraft || Validated concept
 +
|-
 +
| '''Ventral three-panel cargo door''' || Ground-level access and container clearance || Selected architecture
 +
|-
 +
| '''Rear cargo door''' || Access and alignment support during loading || Under detailed refinement
 +
|-
 +
| '''Robotic arms''' || Container lifting, stabilization and positioning || Concept validated at TRL2
 +
|-
 +
| '''Twist-lock interface''' || ISO corner fixation and structural locking || Retained principle
 +
|-
 +
| '''PW150A engines''' || Twin-turboprop propulsion || Selected baseline
 +
|-
 +
| '''Q400-derived landing gear''' || Landing gear integration in nacelles || Selected baseline
 +
|}
  
    .tech-wrap {
+
----
      display: grid;
 
      grid-template-columns: 1.06fr 0.94fr;
 
      gap: 22px;
 
    }
 
  
    .spec-table {
+
== Development Status ==
      width: 100%;
 
      border-collapse: collapse;
 
      overflow: hidden;
 
      border-radius: 26px;
 
      border: 1px solid var(--line);
 
      background: rgba(255,255,255,0.055);
 
    }
 
  
    .spec-table th, .spec-table td {
+
The ISO-Plane project is developed through a progressive technology readiness approach.
      padding: 17px 20px;
 
      border-bottom: 1px solid var(--line);
 
      text-align: left;
 
    }
 
  
    .spec-table tr:last-child th,
+
{| class="wikitable" style="width:100%;"
    .spec-table tr:last-child td { border-bottom: 0; }
+
! style="background:#102a43; color:white;" | Phase
    .spec-table th { color: #dff7ff; width: 42%; font-weight: 800; }
+
! style="background:#102a43; color:white;" | Period
    .spec-table td { color: var(--muted); }
+
! style="background:#102a43; color:white;" | Main Achievements
 +
|-
 +
| '''TRL0''' || 2012–2014 || Initial concept exploration and aircraft architecture studies.
 +
|-
 +
| '''TRL1''' || 2015–2018 || Preliminary architecture definition and early cargo loading concepts.
 +
|-
 +
| '''TRL2''' || 2024–2025 || Digital mock-up, validated architectural choices, functional analysis and cargo loading scenarios.
 +
|-
 +
| '''TRL3''' || 2026 onward || Detailed engineering studies, structural calculations, CFD, FEA and subsystem validation.
 +
|}
  
    .feature-stack {
+
'''TRL2 achievements include:'''
      display: grid;
 
      gap: 16px;
 
    }
 
  
    .feature {
+
* Validated aircraft configuration.
      padding: 22px;
+
* 3D digital mock-up.
      border: 1px solid var(--line);
+
* Functional analysis.
      border-radius: 24px;
+
* Market and economic study.
      background: rgba(255,255,255,0.06);
+
* Cargo handling scenarios.
    }
+
* Preliminary carbon footprint estimation.
  
    .feature strong { display: block; margin-bottom: 8px; color: #fff; }
+
'''TRL3 focus areas include:'''
    .feature span { display: block; color: var(--muted); line-height: 1.55; }
 
  
    .loading-scene {
+
* Detailed structural calculations.
      border: 1px solid var(--line);
+
* Aerodynamic refinement.
      border-radius: 34px;
+
* Finite Element Analysis.
      padding: 30px;
+
* CFD studies.
      background:
+
* Cargo door structural validation.
        radial-gradient(circle at 75% 18%, rgba(245,184,59,0.16), transparent 28%),
+
* Detailed lifting mechanism design.
        rgba(255,255,255,0.055);
+
* Industrial partnerships for engines, landing gear and onboard systems.
      display: grid;
 
      grid-template-columns: 1fr 1fr;
 
      gap: 28px;
 
      align-items: center;
 
      box-shadow: var(--shadow);
 
    }
 
  
    .process {
+
----
      display: grid;
 
      gap: 14px;
 
      counter-reset: step;
 
    }
 
  
    .process-item {
+
== Collaborative Model ==
      counter-increment: step;
 
      display: grid;
 
      grid-template-columns: 44px 1fr;
 
      gap: 14px;
 
      align-items: start;
 
      padding: 16px;
 
      border-radius: 18px;
 
      background: rgba(255,255,255,0.055);
 
      border: 1px solid rgba(255,255,255,0.09);
 
    }
 
  
    .process-item::before {
+
ISO-Plane is developed as an open collaborative aerospace initiative under the '''Lesser Open Bee License 1.3'''.
      content: counter(step);
 
      width: 44px;
 
      height: 44px;
 
      border-radius: 15px;
 
      display: grid;
 
      place-items: center;
 
      background: linear-gradient(135deg, var(--accent-2), #9df6ff);
 
      color: #07111f;
 
      font-weight: 900;
 
    }
 
  
    .process-item strong { display: block; margin-bottom: 4px; }
+
The project combines:
    .process-item span { color: var(--muted); line-height: 1.5; }
 
  
    .media-placeholder {
+
* Academic engineering contributions.
      min-height: 390px;
+
* Industrial expertise.
      border-radius: 28px;
+
* Open technical documentation.
      background:
+
* Architecture-level collaboration.
        linear-gradient(180deg, rgba(255,255,255,0.12), rgba(255,255,255,0.04)),
+
* Potential private industrial modules integrated around an open core.
        linear-gradient(135deg, rgba(54,209,220,0.2), rgba(245,184,59,0.16));
 
      border: 1px solid var(--line);
 
      position: relative;
 
      overflow: hidden;
 
      display: grid;
 
      place-items: center;
 
    }
 
  
    .media-placeholder::after {
+
Known contributors and collaboration environments include:
      content: "Autonomous loading system";
 
      position: absolute;
 
      left: 20px;
 
      bottom: 20px;
 
      right: 20px;
 
      padding: 14px 16px;
 
      border-radius: 18px;
 
      background: rgba(7,17,31,0.72);
 
      backdrop-filter: blur(12px);
 
      color: #fff;
 
      font-weight: 800;
 
    }
 
  
    .mini-plane {
+
* ESTACA.
      width: 78%;
+
* ENSTA Paris.
      height: 210px;
+
* Student engineering teams.
      position: relative;
+
* Aerospace professionals and technical coordinators.
      transform: translateY(-6px);
+
* Technoplane and Collaborative Bee ecosystem.
    }
 
    .mini-plane .body { position:absolute; left:8%; right:8%; top:45%; height:42px; border-radius:999px; background:#e8f7ff; }
 
    .mini-plane .topwing { position:absolute; left:15%; right:12%; top:28%; height:38px; border-radius:12px 60px 60px 12px; background:#8fd6ff; transform:skewX(-16deg); }
 
    .mini-plane .cargo { position:absolute; left:50%; bottom:10%; width:48%; height:56px; transform:translateX(-50%); border-radius:10px; background:#e89532; }
 
    .mini-plane .line { position:absolute; width:2px; height:72px; top:45%; background:rgba(255,255,255,0.74); }
 
    .mini-plane .l1 { left:34%; } .mini-plane .l2 { left:45%; } .mini-plane .l3 { right:45%; } .mini-plane .l4 { right:34%; }
 
  
    .timeline {
+
[https://www.iso-plane.com www.iso-plane.com]
      position: relative;
 
      display: grid;
 
      grid-template-columns: repeat(4, 1fr);
 
      gap: 16px;
 
      margin-top: 24px;
 
    }
 
  
    .timeline::before {
+
----
      content: "";
 
      position: absolute;
 
      top: 41px;
 
      left: 8%;
 
      right: 8%;
 
      height: 1px;
 
      background: var(--line);
 
      z-index: -1;
 
    }
 
  
    .tl-card {
+
== Market Positioning ==
      padding: 22px;
 
      border: 1px solid var(--line);
 
      border-radius: 24px;
 
      background: rgba(255,255,255,0.06);
 
    }
 
  
    .tl-badge {
+
The ISO-Plane targets premium and strategic segments where speed, autonomy and direct container compatibility create operational value.
      width: 42px;
 
      height: 42px;
 
      border-radius: 50%;
 
      display: grid;
 
      place-items: center;
 
      background: #07111f;
 
      border: 1px solid rgba(245,184,59,0.5);
 
      color: var(--accent);
 
      font-weight: 900;
 
      margin-bottom: 16px;
 
    }
 
  
    .tl-card h3 { margin: 0 0 8px; }
+
{| style="width:100%; border-spacing:14px; margin:18px 0;"
    .tl-card p { margin: 0; color: var(--muted); line-height: 1.55; }
+
| style="width:50%; vertical-align:top; border:1px solid #d6e2ef; border-radius:12px; background:#ffffff; padding:16px;" |
 +
=== Target Users ===
  
    .partner-band {
+
* Logistics operators.
      border: 1px solid var(--line);
+
* Humanitarian organizations.
      border-radius: 36px;
+
* Defense and civil protection agencies.
      padding: 36px;
+
* Firefighting operators.
      background:
+
* Industrial operators in remote areas.
        linear-gradient(135deg, rgba(245,184,59,0.18), transparent 42%),
+
* Governments and emergency response organizations.
        linear-gradient(180deg, rgba(255,255,255,0.12), rgba(255,255,255,0.05));
 
      display: grid;
 
      grid-template-columns: 1fr auto;
 
      gap: 28px;
 
      align-items: center;
 
      box-shadow: var(--shadow);
 
    }
 
  
    .partner-band h2 { margin-bottom: 14px; }
+
| style="width:50%; vertical-align:top; border:1px solid #d6e2ef; border-radius:12px; background:#ffffff; padding:16px;" |
    .partner-band p { margin: 0; color: var(--muted); line-height: 1.65; max-width: 720px; }
+
=== Value Proposition ===
  
    .notice {
+
* Faster deployment of containerized payloads.
      margin-top: 22px;
+
* Less dependence on airport cargo infrastructure.
      padding: 16px 18px;
+
* Reduced handling complexity.
      border: 1px solid rgba(255,255,255,0.12);
+
* Standardized mission modules.
      border-radius: 18px;
+
* Flexible aircraft usage across multiple markets.
      background: rgba(255,255,255,0.045);
+
|}
      color: var(--muted);
 
      font-size: 0.92rem;
 
      line-height: 1.55;
 
    }
 
  
    footer {
+
Preliminary market analysis has considered a production target around '''12 aircraft per year''' over a 10-year horizon, with a conceptual unit price estimate around '''€130 million'''. These figures remain preliminary and must be refined during business plan development.
      padding: 34px 0 52px;
 
      color: var(--muted);
 
      border-top: 1px solid var(--line);
 
    }
 
  
    .footer-grid {
+
----
      display: flex;
 
      justify-content: space-between;
 
      gap: 20px;
 
      flex-wrap: wrap;
 
      align-items: center;
 
    }
 
  
    .reveal {
+
== Environmental Considerations ==
      opacity: 0;
 
      transform: translateY(22px);
 
      transition: opacity 0.7s ease, transform 0.7s ease;
 
    }
 
    .reveal.visible { opacity: 1; transform: translateY(0); }
 
  
    @media (max-width: 960px) {
+
Operational carbon footprint studies have been initiated during the concept phase.
      .nav-links { display: none; }
 
      .hero-grid,
 
      .split,
 
      .tech-wrap,
 
      .loading-scene,
 
      .partner-band { grid-template-columns: 1fr; }
 
      .hero-visual { min-height: 480px; }
 
      .grid-3, .mission-grid { grid-template-columns: repeat(2, 1fr); }
 
      .trust-row { grid-template-columns: repeat(2, 1fr); }
 
      .timeline { grid-template-columns: repeat(2, 1fr); }
 
      .section-head { display: block; }
 
      .section-head p { margin-top: 16px; }
 
    }
 
  
    @media (max-width: 620px) {
+
Baseline assumptions considered:
      .hero { padding-top: 54px; }
 
      .hero-visual { min-height: 420px; }
 
      .grid-3, .mission-grid, .timeline { grid-template-columns: 1fr; }
 
      .visual-card { border-radius: 28px; }
 
      .aircraft { width: 108%; }
 
      .container-box { width: 210px; }
 
      .floating-label.one { right: 18px; top: 18px; }
 
      .floating-label.two { left: 18px; bottom: 18px; }
 
      .spec-table th, .spec-table td { display: block; width: 100%; padding: 13px 16px; }
 
      .spec-table th { padding-bottom: 2px; }
 
      .spec-table td { padding-top: 2px; }
 
      .partner-band { padding: 26px; }
 
    }
 
  </style>
 
</head>
 
<body>
 
  <div class="page-shell">
 
    <header class="topbar">
 
      <div class="container nav">
 
        <a class="brand" href="#top" aria-label="ISO-Plane homepage">
 
          <span class="brand-mark">ISO</span>
 
          <span>ISO-Plane™<small>Container Air Logistics</small></span>
 
        </a>
 
        <nav class="nav-links" aria-label="Navigation principale">
 
          <a href="#missions">Missions</a>
 
          <a href="#technology">Technologie</a>
 
          <a href="#specs">Caractéristiques</a>
 
          <a href="#trl">TRL</a>
 
          <a class="cta-small" href="#join">Devenir partenaire</a>
 
        </nav>
 
      </div>
 
    </header>
 
  
    <main id="top">
+
* Around 3,400 kg of fuel for a 2-hour mission.
      <section class="hero">
+
* Around 10–11 tons of CO₂ per mission.
        <div class="container hero-grid">
+
* Around 9,000–11,000 tons of CO₂ annually for approximately 900 flights per year.
          <div>
 
            <div class="eyebrow"><span class="pulse"></span> Configuration TRL3 · Concept collaboratif ouvert</div>
 
            <h1><span>One container.</span><br>One aircraft.<br>One mission.</h1>
 
            <p class="lead">ISO-Plane™ est un avion-cargo léger spécialisé dans le transport autonome d’un conteneur ISO 20 pieds. Sa promesse : supprimer la dépendance aux grues, loaders et infrastructures lourdes pour accélérer la logistique aérienne critique.</p>
 
            <div class="hero-actions">
 
              <a class="button button-primary" href="#join">Ouvrir une discussion partenariat →</a>
 
              <a class="button button-secondary" href="#specs">Voir la fiche technique</a>
 
            </div>
 
            <div class="trust-row" aria-label="Indicateurs clés">
 
              <div class="metric"><strong>20 ft</strong><span>Conteneur ISO standard</span></div>
 
              <div class="metric"><strong>8 t</strong><span>Charge utile cible</span></div>
 
              <div class="metric"><strong>6 000 km</strong><span>Autonomie visée</span></div>
 
              <div class="metric"><strong>2 × PW150A</strong><span>Turbopropulseurs éprouvés</span></div>
 
            </div>
 
          </div>
 
  
          <div class="hero-visual" aria-label="Illustration de l'ISO-Plane chargeant un conteneur">
+
Future development directions include:
            <div class="visual-card">
 
              <div class="runway"></div>
 
              <div class="aircraft">
 
                <div class="wing"></div>
 
                <div class="engine left"></div>
 
                <div class="engine right"></div>
 
                <div class="nose"></div>
 
                <div class="fuselage"></div>
 
                <div class="tail"></div>
 
                <div class="lift-line a"></div>
 
                <div class="lift-line b"></div>
 
                <div class="lift-line c"></div>
 
                <div class="lift-line d"></div>
 
                <div class="container-box"></div>
 
              </div>
 
              <div class="floating-label one"><strong>Autonomous loading</strong>Ground or truck trailer</div>
 
              <div class="floating-label two"><strong>Infrastructure-light</strong>Designed for regular runways</div>
 
            </div>
 
          </div>
 
        </div>
 
      </section>
 
  
      <section id="positioning">
+
* Sustainable Aviation Fuel compatibility studies.
        <div class="container split">
+
* Structural weight optimization.
          <div class="problem-panel reveal">
+
* Eco-design principles.
            <div class="section-kicker">Market gap</div>
+
* Aerodynamic refinement.
            <h3>Le chaînon manquant entre fret régional et transport militaire lourd.</h3>
+
* Long-term hybridization studies.
            <ul class="comparison-list">
 
              <li><span class="cross">×</span><span><b>Les avions cargo régionaux</b> ne sont pas conçus autour du conteneur ISO standard.</span></li>
 
              <li><span class="cross">×</span><span><b>Les plateformes capables d’emporter un conteneur</b> sont souvent plus grandes, plus lourdes et nécessitent une logistique au sol importante.</span></li>
 
              <li><span class="check">✓</span><span><b>ISO-Plane</b> vise un transport direct, autonome et rapide d’un seul conteneur stratégique.</span></li>
 
            </ul>
 
          </div>
 
          <div class="grid-3">
 
            <article class="card reveal">
 
              <div class="icon">▣</div>
 
              <h3>Container-first design</h3>
 
              <p>La cellule, la soute, les portes et le système de levage sont pensés autour d’un conteneur ISO 20 pieds, pas autour d’une palette aérienne classique.</p>
 
            </article>
 
            <article class="card reveal">
 
              <div class="icon">↧</div>
 
              <h3>Autonomie au sol</h3>
 
              <p>Chargement et déchargement depuis le sol ou une remorque, avec bras mécanisés, interfaces twist-locks et système de secours par treuils.</p>
 
            </article>
 
            <article class="card reveal">
 
              <div class="icon">◎</div>
 
              <h3>Plateforme multi-rôle</h3>
 
              <p>Un même avion, des modules conteneurisés : logistique, secours, médical, défense, lutte anti-incendie ou missions spéciales.</p>
 
            </article>
 
          </div>
 
        </div>
 
      </section>
 
  
      <section id="missions">
+
----
        <div class="container">
 
          <div class="section-head reveal">
 
            <div>
 
              <div class="section-kicker">Missions</div>
 
              <h2>Une plateforme, plusieurs marchés.</h2>
 
            </div>
 
            <p>ISO-Plane valorise le conteneur comme module opérationnel : le client prépare la mission au sol, l’avion transporte, dépose et repart avec un minimum d’infrastructure.</p>
 
          </div>
 
          <div class="mission-grid">
 
            <article class="mission-card reveal" data-number="01">
 
              <h3>Logistique critique</h3>
 
              <p>Approvisionnement rapide de sites industriels, bases avancées, plateformes isolées ou zones mal connectées.</p>
 
            </article>
 
            <article class="mission-card reveal" data-number="02">
 
              <h3>Aide humanitaire</h3>
 
              <p>Déploiement de matériel médical, énergie, eau, abris ou modules de communication en contexte de crise.</p>
 
            </article>
 
            <article class="mission-card reveal" data-number="03">
 
              <h3>Firefighting</h3>
 
              <p>Module conteneurisé de largage d’eau pour transformer l’appareil en vecteur aérien spécialisé.</p>
 
            </article>
 
            <article class="mission-card reveal" data-number="04">
 
              <h3>Défense & missions spéciales</h3>
 
              <p>Transport tactique de conteneurs, équipements sensibles, ateliers mobiles ou systèmes modulaires.</p>
 
            </article>
 
          </div>
 
        </div>
 
      </section>
 
  
      <section id="technology">
+
== Why ISO-Plane? ==
        <div class="container">
 
          <div class="section-head reveal">
 
            <div>
 
              <div class="section-kicker">Technology review</div>
 
              <h2>Conçu pour charger ce que les autres doivent reconditionner.</h2>
 
            </div>
 
            <p>Le cœur de l’innovation n’est pas seulement le transport du conteneur : c’est la capacité à le prendre, le verrouiller, le protéger et le déposer sans équipement externe lourd.</p>
 
          </div>
 
          <div class="loading-scene reveal">
 
            <div class="media-placeholder" role="img" aria-label="Illustration du chargement autonome ISO-Plane">
 
              <div class="mini-plane">
 
                <div class="topwing"></div>
 
                <div class="body"></div>
 
                <div class="line l1"></div>
 
                <div class="line l2"></div>
 
                <div class="line l3"></div>
 
                <div class="line l4"></div>
 
                <div class="cargo"></div>
 
              </div>
 
            </div>
 
            <div>
 
              <div class="section-kicker">Cargo handling</div>
 
              <h2>Chargement autonome en quatre temps.</h2>
 
              <div class="process">
 
                <div class="process-item"><div><strong>Aligner</strong><span>Positionnement de l’avion ou du camion selon le scénario opérationnel.</span></div></div>
 
                <div class="process-item"><div><strong>Ouvrir</strong><span>Ouverture arrière et porte ventrale trois panneaux pour libérer l’accès conteneur.</span></div></div>
 
                <div class="process-item"><div><strong>Verrouiller & lever</strong><span>Bras mécanisés connectés aux coins ISO avec interfaces twist-locks.</span></div></div>
 
                <div class="process-item"><div><strong>Sécuriser</strong><span>Fermeture, fixation en soute pressurisée et préparation au roulage.</span></div></div>
 
              </div>
 
            </div>
 
          </div>
 
        </div>
 
      </section>
 
  
      <section id="specs">
+
{| style="width:100%; border:1px solid #d6e2ef; border-radius:14px; background:#102a43; color:white; padding:18px; margin:18px 0;"
        <div class="container tech-wrap">
+
|-
          <div class="reveal">
+
| style="width:25%; vertical-align:top; padding:14px;" |
            <div class="section-kicker">Key technical characteristics</div>
+
<span style="font-size:180%; font-weight:bold;">01</span>
            <h2>Fiche conceptuelle</h2>
 
            <p class="lead">Une architecture cargo spécialisée, optimisée autour d’un conteneur unique et d’une exploitation autonome sur piste conventionnelle.</p>
 
            <table class="spec-table" aria-label="Caractéristiques techniques ISO-Plane">
 
              <tr><th>Container</th><td>1 × conteneur ISO 20 pieds</td></tr>
 
              <tr><th>Payload cible</th><td>Jusqu’à 8 tonnes</td></tr>
 
              <tr><th>MTOW estimée</th><td>Environ 30 tonnes</td></tr>
 
              <tr><th>Range visée</th><td>Jusqu’à 6 000 km selon mission</td></tr>
 
              <tr><th>Motorisation</th><td>2 × Pratt & Whitney PW150A</td></tr>
 
              <tr><th>Architecture</th><td>Aile haute, bipoutre, soute pressurisée</td></tr>
 
              <tr><th>Train principal</th><td>Dérivé Q400, rétracté dans les nacelles</td></tr>
 
              <tr><th>Cargo system</th><td>Porte ventrale trois panneaux + bras robotisés</td></tr>
 
            </table>
 
          </div>
 
          <div class="feature-stack">
 
            <article class="feature reveal"><strong>Ventral cargo door</strong><span>Mécanisme trois panneaux pour accès au conteneur depuis le sol, compatible avec une logique de soute pressurisée.</span></article>
 
            <article class="feature reveal"><strong>Robotic lifting arms</strong><span>Quatre bras mécanisés rétractables avec accrochage aux coins ISO et secours par quatre treuils électriques.</span></article>
 
            <article class="feature reveal"><strong>High-wing architecture</strong><span>Garde au sol, intégration de nacelles et préservation du volume central pour la soute cargo.</span></article>
 
            <article class="feature reveal"><strong>Q400-derived landing gear</strong><span>Train principal intégré sous les moteurs afin de conserver la continuité de la soute ventrale.</span></article>
 
          </div>
 
        </div>
 
      </section>
 
  
      <section id="trl">
+
'''Direct container transport'''
        <div class="container">
 
          <div class="section-head reveal">
 
            <div>
 
              <div class="section-kicker">Development status</div>
 
              <h2>De l’idée au programme TRL3.</h2>
 
            </div>
 
            <p>Le projet combine recherche académique, études d’architecture, maquette numérique et contributions industrielles dans un cadre Lesser Open Bee License 1.3.</p>
 
          </div>
 
          <div class="timeline">
 
            <article class="tl-card reveal"><div class="tl-badge">0</div><h3>TRL0 · 2012–2014</h3><p>Exploration du besoin : transporter un conteneur ISO avec l’avion le plus léger possible.</p></article>
 
            <article class="tl-card reveal"><div class="tl-badge">1</div><h3>TRL1 · 2015–2018</h3><p>Définition d’architectures préliminaires, choix de grands principes et premières solutions de soute.</p></article>
 
            <article class="tl-card reveal"><div class="tl-badge">2</div><h3>TRL2 · 2024–2025</h3><p>Configuration validée, maquette numérique 3D, choix techniques et scénarios de chargement.</p></article>
 
            <article class="tl-card reveal"><div class="tl-badge">3</div><h3>TRL3 · 2026</h3><p>Lancement des études détaillées : structure, aérodynamique, portes, levage, FEA et CFD.</p></article>
 
          </div>
 
        </div>
 
      </section>
 
  
      <section id="join">
+
A standard 20-foot ISO container becomes an airborne mission module.
        <div class="container">
 
          <div class="partner-band reveal">
 
            <div>
 
              <div class="section-kicker">Join the programme</div>
 
              <h2>Construisons la prochaine brique du transport aérien conteneurisé.</h2>
 
              <p>ISO-Plane est ouvert aux écoles, laboratoires, ingénieurs, avionneurs, équipementiers et partenaires mission. Les contributions ouvertes structurent l’architecture commune, tandis que des briques industrielles privées peuvent s’intégrer au programme.</p>
 
              <div class="notice"><strong>Note programme :</strong> cette page présente l’ISO-Plane comme vision produit et support de partenariat. L’appareil est en phase de développement et ne doit pas être présenté comme certifié ou disponible à la vente opérationnelle.</div>
 
            </div>
 
            <a class="button button-primary" href="mailto:contact@iso-plane.com?subject=ISO-Plane%20Partnership%20Inquiry">contact@iso-plane.com</a>
 
          </div>
 
        </div>
 
      </section>
 
    </main>
 
  
    <footer>
+
| style="width:25%; vertical-align:top; padding:14px;" |
      <div class="container footer-grid">
+
<span style="font-size:180%; font-weight:bold;">02</span>
        <div class="brand">
 
          <span class="brand-mark">ISO</span>
 
          <span>ISO-Plane™<small>Rethinking container air logistics</small></span>
 
        </div>
 
        <div>www.iso-plane.com · Lesser Open Bee License 1.3 · Technoplane</div>
 
      </div>
 
    </footer>
 
  </div>
 
  
  <script>
+
'''Autonomous logistics'''
    const observer = new IntersectionObserver((entries) => {
 
      entries.forEach((entry) => {
 
        if (entry.isIntersecting) {
 
          entry.target.classList.add('visible');
 
          observer.unobserve(entry.target);
 
        }
 
      });
 
    }, { threshold: 0.12 });
 
  
    document.querySelectorAll('.reveal').forEach((element) => observer.observe(element));
+
The aircraft carries its own loading and unloading capability.
  </script>
+
 
</body>
+
| style="width:25%; vertical-align:top; padding:14px;" |
</html>
+
<span style="font-size:180%; font-weight:bold;">03</span>
 +
 
 +
'''Operational flexibility'''
 +
 
 +
One platform can serve logistics, relief, firefighting and special missions.
 +
 
 +
| style="width:25%; vertical-align:top; padding:14px;" |
 +
<span style="font-size:180%; font-weight:bold;">04</span>
 +
 
 +
'''Collaborative innovation'''
 +
 
 +
Open architecture principles help accelerate development and partnerships.
 +
|}
 +
 
 +
----
 +
 
 +
== Join the Project ==
 +
 
 +
ISO-Plane is an open collaborative aerospace initiative welcoming engineers, students, researchers and industry stakeholders.
 +
 
 +
'''Collaboration opportunities include:'''
 +
 
 +
* Aerodynamic studies.
 +
* Structural sizing.
 +
* Cargo door mechanisms.
 +
* Robotic lifting systems.
 +
* Systems integration.
 +
* Market analysis and business model refinement.
 +
* Certification and industrialization studies.
 +
 
 +
For collaboration inquiries and technical documentation:
 +
 
 +
'''[https://www.iso-plane.com www.iso-plane.com]'''
 +
 
 +
{| style="width:100%; border:1px solid #d6e2ef; border-radius:14px; background:#fff8e6; padding:16px; margin-top:20px;"
 +
|-
 +
| '''Programme note:''' ISO-Plane is presented here as a development programme and partnership opportunity. The aircraft is not presented as certified or commercially available for operational service at this stage.
 +
|}
 +
 
 +
----
 +
 
 +
''ISO-Plane™ — Rethinking container air logistics.''
 +
 
 +
[[Category:ISO-Plane]]
 +
[[Category:Technoplane]]
 +
[[Category:Open collaborative aerospace project]]

Latest revision as of 16:48, 28 April 2026


ISO-Plane™

Container Air Logistics

One container. One aircraft. One mission.

ISO-Plane™ is an open collaborative aerospace project developing a dedicated light cargo aircraft capable of transporting a single 20-foot ISO container with autonomous loading and unloading.

Designed around the container — not around conventional palletized cargo — ISO-Plane aims to offer a new operational standard for fast, infrastructure-light air logistics.

The aircraft concept targets: direct transport of one ISO container, autonomous cargo handling from ground or truck trailer, operation from regular landing fields, and multi-role mission capability.

www.iso-plane.com

Key Figures
Container 1 × 20-foot ISO container
Payload target Up to 8 tons
Range target Up to 6,000 km
Engines 2 × Pratt & Whitney PW150A
Crew 2 pilots
Development status TRL3 in progress

Executive Overview

The ISO-Plane is a specialized cargo aircraft concept designed to solve a structural gap in air freight: transporting a standard ISO container without requiring a large military-class aircraft or heavy ground loading infrastructure.

Today, aircraft capable of carrying a full ISO container are generally large platforms requiring substantial logistics support. Smaller cargo aircraft are efficient for regional operations but are not built around ISO container geometry. ISO-Plane addresses this gap by placing the 20-foot container at the center of the aircraft architecture.

Container-first architecture

The cargo bay, ventral door, lifting system and fuselage diameter are designed around one 20-foot ISO container.

Autonomous handling

Loading and unloading can be performed from the ground or directly from a truck trailer using onboard mechanisms.

Multi-role platform

The same airframe can support logistics, humanitarian operations, firefighting, medical modules and special missions.


Product Positioning

The Market Gap

  • Large military aircraft can transport ISO containers, but they are expensive, heavy and infrastructure-intensive.
  • Smaller regional aircraft cannot accommodate a standard 20-foot ISO container as a native cargo unit.
  • Conventional air freight requires palletization, specialized loaders and additional ground operations.

The ISO-Plane Answer

  • Direct air transport of one standard 20-foot ISO container.
  • Autonomous loading and unloading without cranes or external loaders.
  • Operation from regular landing fields.
  • Two-pilot crew with automated cargo handling.
  • Mission flexibility through containerized modules.

ISO-Plane proposes a new paradigm: containerized air logistics with minimal ground infrastructure.


Mission Applications

Mission Operational Value
Logistics Operations Rapid movement of high-value, urgent or strategic containerized cargo to remote or constrained locations.
Humanitarian Aid / Relief Operations Deployment of medical, shelter, water, energy or communications modules after disasters.
Aerial Firefighting Potential water-bombing capability using a dedicated containerized water module.
Special Missions / Defense Operations Tactical transport of modular systems, sensitive cargo or mobile support infrastructure.

Key Technical Characteristics

Parameter Value
Container 1 × 20-foot ISO container, ISO 668 standard
Payload Up to 8 tons
Estimated MTOW Approximately 30 tons
Range Up to 6,000 km, mission dependent
Engines 2 × Pratt & Whitney PW150A turboprop engines
Wing configuration High wing
Architecture Twin-boom configuration
Landing gear Q400-derived, retracting into engine nacelles
Cargo bay Pressurized cargo compartment
Cargo system Ventral three-panel cargo door and robotic lifting arms
Crew Two pilots

Cargo Handling System

The defining innovation of the ISO-Plane is its integrated autonomous container handling system.

Ventral Cargo Door

The aircraft features a three-panel ventral opening mechanism designed to provide direct access to the container from below the fuselage.

This system enables:

  • Ground-level loading and unloading.
  • Direct truck-to-aircraft transfer.
  • Compatibility with a pressurized cargo bay architecture.
  • Preservation of structural continuity through separated opening functions.

Robotic Lifting Arms

The container is handled by onboard mechanized systems:

  • Four robotic lifting arms.
  • ISO corner twist-lock interface.
  • Autonomous alignment and positioning logic.
  • Backup system using four electric winches.

Loading scenarios include:

  1. Container positioned directly on the ground.
  2. Container positioned on a truck trailer behind the aircraft.
  3. Aircraft or truck alignment followed by automatic lifting, locking and securing.

1. Align

Aircraft and container are aligned using the selected ground scenario.

2. Open

Rear and ventral cargo doors open to release the container access volume.

3. Lock & Lift

Robotic arms connect to ISO corners and lift the container.

4. Secure

The container is positioned, locked and prepared for flight.


Aircraft Architecture

Engines

The selected powerplant is the Pratt & Whitney PW150A turboprop, chosen for its compatibility with the targeted aircraft class and its use on the Q400 platform.

Key advantages:

  • Proven turboprop architecture.
  • Power level compatible with an estimated 30-ton MTOW class.
  • Integration opportunity with Q400-derived systems.

Landing Gear

The main landing gear is derived from the Bombardier Q400.

Design principle: the main landing gear retracts into the nacelles below the high-mounted wings to maintain clearance with the cargo bay.

This configuration:

  • Preserves the ventral cargo opening.
  • Avoids interference with the container bay.
  • Reduces landing gear leg length compared with a lower fuselage installation.
  • Supports the high-wing cargo architecture.

Wing & Structure

The ISO-Plane architecture includes:

  • High-wing configuration for ground and container clearance.
  • Twin-boom layout.
  • Central wing box designed for structural continuity.
  • Pressurized cockpit and cargo compartment.
  • Fuselage diameter sized for ISO container integration.

Technology Review

Technology Block Purpose Status
20-foot container integration Native cargo unit for the aircraft Validated concept
Ventral three-panel cargo door Ground-level access and container clearance Selected architecture
Rear cargo door Access and alignment support during loading Under detailed refinement
Robotic arms Container lifting, stabilization and positioning Concept validated at TRL2
Twist-lock interface ISO corner fixation and structural locking Retained principle
PW150A engines Twin-turboprop propulsion Selected baseline
Q400-derived landing gear Landing gear integration in nacelles Selected baseline

Development Status

The ISO-Plane project is developed through a progressive technology readiness approach.

Phase Period Main Achievements
TRL0 2012–2014 Initial concept exploration and aircraft architecture studies.
TRL1 2015–2018 Preliminary architecture definition and early cargo loading concepts.
TRL2 2024–2025 Digital mock-up, validated architectural choices, functional analysis and cargo loading scenarios.
TRL3 2026 onward Detailed engineering studies, structural calculations, CFD, FEA and subsystem validation.

TRL2 achievements include:

  • Validated aircraft configuration.
  • 3D digital mock-up.
  • Functional analysis.
  • Market and economic study.
  • Cargo handling scenarios.
  • Preliminary carbon footprint estimation.

TRL3 focus areas include:

  • Detailed structural calculations.
  • Aerodynamic refinement.
  • Finite Element Analysis.
  • CFD studies.
  • Cargo door structural validation.
  • Detailed lifting mechanism design.
  • Industrial partnerships for engines, landing gear and onboard systems.

Collaborative Model

ISO-Plane is developed as an open collaborative aerospace initiative under the Lesser Open Bee License 1.3.

The project combines:

  • Academic engineering contributions.
  • Industrial expertise.
  • Open technical documentation.
  • Architecture-level collaboration.
  • Potential private industrial modules integrated around an open core.

Known contributors and collaboration environments include:

  • ESTACA.
  • ENSTA Paris.
  • Student engineering teams.
  • Aerospace professionals and technical coordinators.
  • Technoplane and Collaborative Bee ecosystem.

www.iso-plane.com


Market Positioning

The ISO-Plane targets premium and strategic segments where speed, autonomy and direct container compatibility create operational value.

Target Users

  • Logistics operators.
  • Humanitarian organizations.
  • Defense and civil protection agencies.
  • Firefighting operators.
  • Industrial operators in remote areas.
  • Governments and emergency response organizations.

Value Proposition

  • Faster deployment of containerized payloads.
  • Less dependence on airport cargo infrastructure.
  • Reduced handling complexity.
  • Standardized mission modules.
  • Flexible aircraft usage across multiple markets.

Preliminary market analysis has considered a production target around 12 aircraft per year over a 10-year horizon, with a conceptual unit price estimate around €130 million. These figures remain preliminary and must be refined during business plan development.


Environmental Considerations

Operational carbon footprint studies have been initiated during the concept phase.

Baseline assumptions considered:

  • Around 3,400 kg of fuel for a 2-hour mission.
  • Around 10–11 tons of CO₂ per mission.
  • Around 9,000–11,000 tons of CO₂ annually for approximately 900 flights per year.

Future development directions include:

  • Sustainable Aviation Fuel compatibility studies.
  • Structural weight optimization.
  • Eco-design principles.
  • Aerodynamic refinement.
  • Long-term hybridization studies.

Why ISO-Plane?

01

Direct container transport

A standard 20-foot ISO container becomes an airborne mission module.

02

Autonomous logistics

The aircraft carries its own loading and unloading capability.

03

Operational flexibility

One platform can serve logistics, relief, firefighting and special missions.

04

Collaborative innovation

Open architecture principles help accelerate development and partnerships.


Join the Project

ISO-Plane is an open collaborative aerospace initiative welcoming engineers, students, researchers and industry stakeholders.

Collaboration opportunities include:

  • Aerodynamic studies.
  • Structural sizing.
  • Cargo door mechanisms.
  • Robotic lifting systems.
  • Systems integration.
  • Market analysis and business model refinement.
  • Certification and industrialization studies.

For collaboration inquiries and technical documentation:

www.iso-plane.com

Programme note: ISO-Plane is presented here as a development programme and partnership opportunity. The aircraft is not presented as certified or commercially available for operational service at this stage.

ISO-Plane™ — Rethinking container air logistics.