View Plans

Autonomous 3D Models

Find the best Autonomous 3D Models, free download in STL, FBX, GLB, OBJ, 3MF, USDZ for 3D modeling and creation in Blender, 3D printing, game developing, animation, eCommerce, AR/VR and etc. Generated by Tripo AI 3D Generator.

You May Also Like :
robotaivehicleautomationtechnologymachinedigitalsmarttransportfuturisticdeviceengineering
铲式无人驾驶机器人3d模型: 锹甲仿生全地形道路巡检与乡村辅助机器人设计全流程指令，无人驾驶、小型轻量化，以工业设计作品集为目标，融合获奖山地智能避障运输机的轮履复合底盘与可升降避障轮结构。 生成分步过程图： 概念草图：锹甲形态 + 轮履复合底盘手绘线稿，突出大颚式夹铲结构 结构线框图：白色背景，清晰呈现无人驾驶小型车身、可升降避障轮、夹铲、货仓 3D 白模素模：无材质色彩，展示小型整机形态与模块分布 材质与色彩：车身外壳 / 底盘 / 夹铲为金属不锈钢，内饰 / 隔板为工程塑料，哑光深灰为主（＞70%），安全黄为辅（点缀轮轴、夹铲边缘、警示灯、传感器外壳） 功能标注：标注无人驾驶系统、智能避障轮、山体检测传感器、分区回收仓、农产品货仓 最终渲染：山区道路场景，写实 3D 效果，突出金属质感与安全黄点缀 生成主视觉效果图： 外观：无人驾驶小型机器车，金属不锈钢外壳 + 工程塑料内饰，哑光深灰为主色，安全黄为辅色，山林中高辨识度，便于 GPS 定位与搜救 结构：参考获奖作品轮履复合底盘 + 可升降避障轮，车头为锹甲大颚式夹铲 核心功能： 无人驾驶 + 智能避障：可升降轮轴应对石块、坑洼、陡坡 山体健康检测：单目摄像头 + 倾角 / 湿度传感器，探测隐患并回传预警 资源回收：夹铲收集碎石 / 土块 / 落叶，集水盒收纳积水，回收仓固液分区 乡村辅助：货仓协助果农运输农产品，下山空载免费搭载 场景：山区林间道路巡检，8K 写实渲染，金属质感强烈 三、结构与细节图 生成区域功能分解图（爆炸图）：白色背景，拆解模块并标注材料： 行走模块：轮履复合底盘（金属不锈钢）+ 可升降避障轮（金属不锈钢） 收集模块：锹甲大颚式夹铲（金属不锈钢）+ 集水盒（工程塑料） 回收模块：分区回收仓（金属不锈钢外壳 + 工程塑料隔板） 检测模块：山体健康传感器组（工程塑料外壳） 运输模块：农产品货仓（金属不锈钢） 动力与控制模块：轻量化通用动力单元（金属不锈钢 + 工程塑料）+GPS 模块 防护外壳：金属不锈钢车身，安全黄警示点缀 生成标准三视图（正 / 侧 / 俯），标注小型化尺寸（长≤1200mm，宽≤800mm，高≤900mm）；生成局部细节特写图，展示车头夹铲、分区回收仓、可升降避障轮、检测传感器组。 整体要求：工业设计作品集风格，步骤清晰，比例精准，突出无人驾驶、小型轻量化、材料明确、成本控制核心创新。
铲式无人驾驶机器人3d模型 3D Model
service robot 3d model: white autonomous service robot vehicle with four wheels and articulated arm in industrial setting
Service Robot 3D Model
자율 무인 수상 로봇 3d모델: autonomous usv 용 간단한 선체 생성 (필수조건: 메쉬 25만 개 이하)
자율 무인 수상 로봇 3d모델 3D Model
low-poly utility truck 3d model: A low-poly 3D model of an autonomous wilderness utility truck for collecting animal carcasses. The vehicle body is thick and boxy, similar to a large van. The whole vehicle is a big rectangular block with strong volume, not flat. Four large off-road wheels with thick tires for rough terrain. A robotic arm is mounted on the roof of the vehicle near the front. The articulated arm has simple joints and a claw gripper. It can extend forward to grab carcasses from the ground. The rear part of the box-shaped vehicle is a cargo container. The top lid can open upward so the robotic arm can drop the carcass inside. Style: low poly, minimal polygons, simple geometric shapes, chunky proportions, stylized hard-surface design, game-ready 3D asset.
Low-poly Utility Truck 3D Model
otonom sualtı aracı 3d model: otonom bir su altı aracı tasarla TEMEL ÖZELLİKERİ 1.Su geçirmez olması 2.Kamera ve sonar sistemler. 3.Basınç ve derinlik sensörleri 4.Motor ve pervane sistemleri 5.Batarya veya kablolu enerji sistemleri. NERELERDE KULLANILIR 1.Bilimsel Araştırmalarda 2.Enerji sektöründe 3.Batık araştırmalarına vb. 4.Çevre temizliği AVANTAJLARI 1.İnsan hayatını riske atmaz 2.Uzun süre görev yapabilir 3.Hassas ölçüm yapar 4.Çok derinlere iner Denizaltıları Nasıl Ortaya Çıktı? Kısaca Özet Denizaltılar: Önce deneysel ve el gücüyle çalışan araçlar olarak ortaya çıktı, Sanayi Devrimi ile metal ve motor teknolojisi sayesinde gelişti, Dünya savaşlarıyla askeri stratejinin merkezine girdi, Nükleer enerjiyle modern formuna ulaştı. İstersen askeri denizaltıların çalışma prensibini (balast sistemi, dalma–yükselme mantığı) da sade bir şemayla anlatabilirim. 1️⃣ Basınç Dayanımı (Çok Kritik) Su altında basınç hızla artar: 1 metre ≈ 0.1 bar 10 metre ≈ 1 bar 20 metre ≈ 2 bar Yani 20 metreye inersen robotun üzerine ciddi kuvvet biner. Di
Otonom Sualtı Aracı 3D Model
无人车托盘3d模型: 生成一个托盘自动装卸到无人车，从无人车的尾部装卸，每个无人车可以装卸2个托盘，第一个托盘装卸提升后，平移至前部，第二个托盘装卸提升后，平移至无人车的后半部
无人车托盘3d模型 3D Model
托盘搬运机器人3d模型: 生成一个托盘自动装卸到无人车，从无人车的尾部装卸，每个无人车可以装卸2个托盘，第一个托盘装卸提升后，平移至前部，第二个托盘装卸提升后，平移至无人车的后半部
托盘搬运机器人3d模型 3D Model
托盘搬运无人车3d模型: 生成一个托盘自动装卸到无人车，从无人车的尾部装卸，每个无人车可以装卸2个托盘，第一个托盘装卸提升后，平移至前部，第二个托盘装卸提升后，平移至无人车的后半部
托盘搬运无人车3d模型 3D Model
електромобіль 3d модель: 🚘 Машина майбутнього, що їздить по землі Машина майбутнього — це екологічний, повністю автономний наземний транспорт нового покоління. Вона поєднує електричну або водневу енергію, штучний інтелект та інноваційні матеріали, створюючи безпечний, швидкий і комфортний спосіб пересування. 🔋 Енергонезалежність та екологічність Автомобіль працює на передових акумуляторах або водневих паливних елементах. Заправка воднем триває близько 5 хвилин, а запас ходу може перевищувати 1000 км. Транспорт не створює шкідливих викидів, що робить його безпечним для довкілля. 🤖 Повна автономність Керування здійснює штучний інтелект. Машина самостійно аналізує дорожню ситуацію, обирає оптимальний маршрут і запобігає аваріям. Водійські права більше не потрібні — достатньо задати пункт призначення через додаток. 🧲 Інноваційний рух Деякі моделі використовують принципи магнітної левітації, подібні до технологій Hyperloop або SkyTran. Завдяки цьому зменшується тертя, а швидкість може сягати 240–300 км/год наві
Електромобіль 3d Модель 3D Model
robot rover 3d modèle: Robot mobile autonome 4×4, châssis rectangulaire robuste avec quatre roues motrices. La face avant du robot est équipée de plusieurs capteurs insérés dans le sol : une électrode de pH, des capteurs d’humidité et de conductivité, ainsi que des capteurs pour la navigation et l’évitement d’obstacles. La face arrière du robot intègre un bras articulé motorisé à plusieurs degrés de liberté, terminé par une pelle pour le prélèvement d’échantillons de sol. La pelle est capable de descendre, pénétrer le sol, saisir un petit échantillon et le lever pour le déposer dans un bac d’analyse fixé juste derrière le bras. Le bac arrière contient également le module électronique embarqué (carte Raspberry Pi ou microcontrôleur), le système d’alimentation et les câbles de connexion. Le robot présente un design modulaire : zone avant pour les capteurs, zone centrale pour le contrôle et l’énergie, zone arrière pour le prélèvement et le stockage des échantillons. L’ensemble est conçu pour fonctionner de mani
Robot Rover 3d Modèle 3D Model
educational robot 3d model: Small autonomous exploration robot prototype for an educational robotics project. Compact rectangular body with four wheels and a clean simple industrial design. Front ultrasonic sonar sensor module for detecting obstacles and nearby objects. The robot moves independently using electric motors for autonomous navigation. On the top there is a small OLED display that shows material detection such as Metal, Plastic, or Unknown object. On both sides there are modular panels that can work as small solar panels for eco friendly energy or as holders for archaeological tools. The robot is designed to assist archaeologists exploring excavation areas safely without damaging artifacts. Color scheme white body with green wheels and dark sensor modules. Realistic, functional, minimal educational prototype similar to a FIRST LEGO League innovation project robot. Slightly top front camera view, clean surfaces, modern believable robotics design.
Educational Robot 3D Model
автономное такси 3d модель: Сделай 3д модель на тему "транспорт" связанные с ИИ, например такси без водителя(как у яндекса)
Автономное Такси 3d Модель 3D Model
autonomous robotic platform 3d model: autonomous robotic platform with gray body and yellow rails featuring wheel modules and control panel
Autonomous Robotic Platform 3D Model
barca asv 3d: 📘 Scheda Tecnica Completa – ASV (Autonomous Surface Vessel) Versione consolidata da tutta la nostra conversazione 1. Concetto generale L’ASV è un monocarena deep‑V stabilizzato da gondole laterali, NON un catamarano. Le gondole non sono scafi indipendenti, ma sponsons integrati alla carena centrale, con funzione: stabilizzazione laterale riduzione rollio miglioramento planata aumento portanza laterale miglior comportamento in onde corte e incrociate Il mezzo è progettato per: navigazione autonoma mare mosso (onde corte e ripide) planata stabile piattaforma sensori (prua + centro) doppia motorizzazione elettrica o fuoribordo leggera 2. Dimensioni principali Parametro Valore Lunghezza totale (LOA) 4000 mm Baglio massimo 1100 mm Pescaggio 220 mm Altezza coperta da chiglia 450 mm Carena Deep‑V con deadrise variabile Deadrise prua 24° Deadrise mezzanave 20° Deadrise poppa 18° 3. Carena centrale (scaffold principale) Forma: Deep‑V progressivo (24° → 20° → 18°) Chiglia continua
Barca Asv 3d 3D Model
autonomous boat 3d model: ASV autonomous surface vehicle with hull, antennas, and sensors
Autonomous Boat 3D Model
industrial surveillance unit 3d model: A detailed 3D model of an autonomous roadside surveillance unit mounted high on a metal street pole section. The main weatherproof industrial housing is angled sharply downwards, with the distinct lens barrel of a Raspberry Pi Camera Module 3 protruding from its bottom face, aiming at the ground. Mounted rigidly above this main box is an array of photovoltaic solar panels angled upwards towards the sky. A separate, smaller battery enclosure is strapped to the pole immediately below the main camera unit. Flexible conduits and heavy-duty brackets connect all components. Hard-surface modeling, engineering prototype style.
Industrial Surveillance Unit 3D Model
autonomous mobile robot 3d model: Autonomous mobile robot by SSI Schaefer; yellow body with grey chassis and compact industrial design.
Autonomous Mobile Robot 3D Model
autonomous car prototype 3d model: Create a clean, professional, engineering-style 3D CAD model of a toy-sized autonomous self-driving car prototype (not a full vehicle). The design must look world-class / world-best, premium, minimal, robust, and manufacturable—like a top-tier robotics prototype. Output high-resolution renders on a plain white background with soft studio lighting and subtle shadow. No logos, no text labels on the model, no watermark, no people, no environment. REQUIRED OUTPUT VIEWS: 3D assembled CAD view (isometric 45°) 3D exploded view (all parts separated slightly, aligned clearly, easy to understand) Orthographic views: Top, Side, Front Dimension lines in millimeters for overall length, width, height, wheelbase, track width, and ground clearance GLOBAL DESIGN RULES: Use clean fillets/chamfers, symmetric layout, perfect weight balance, professional brackets/standoffs, and neat cable routing channels (or omit wires). Use matte neutral CAD materials (dark gray, light gray, aluminum), sharp edges, realistic screws (M3)
Autonomous Car Prototype 3D Model