Bronse Futuristisk · 2025
Savior Terrengdyktig modulær redningsrobot
by Mingze Gao
- A' Design Award i Bronse 2025 in Futuristisk
- CLIENT: LuXun Academy of Fine Arts
- Estimated Number of Design Views: 122,431
- Verification code 78DD46E8F7 · Verify this award
Colors
About Savior Terrengdyktig modulær redningsrobot
Savior er en terrengdyktig modulær redningsrobot utviklet for arbeid i katastrofeområder. LiDAR-sensorer overvåker bakken, og roboten bytter mellom hjul og føtter for å bevege seg over komplekst terreng. Den modulære strukturen gjør det mulig å montere søk- og redningsmoduler, medisinske moduler, transportmoduler eller kommunikasjonsmoduler for hvert oppdrag. En hydrogenmotor kan fylles på eller lades opp og gir lang driftstid. Et kunstig intelligens-system analyserer oppdragsdata og planlegger ruten autonomt. Roboten måler 1000 ganger 996 ganger 428 millimeter.
About the A' Design Award i Bronse
Savior Terrengdyktig modulær redningsrobot er vinner av A' Design Award i Bronse, en høyt prestisjefylt anerkjennelse som tildeles enestående design som utmerker seg ved kreativitet, oppfinnsomhet og skarpsindighet. Bronsevinnere er rikt dyktige og påfallende kreative gjenstander som bekrefter designernes store erfaring, fantasi og ressurssterkhet. Savior Terrengdyktig modulær redningsrobot forventes å være en høyt ansett, beundret og verdsatt gjenstand som er bemerkelsesverdig profesjonell og nyskapende. Dette designet, som har vunnet A' Design Award i Bronse, rommer beste praksis innen kunst, vitenskap, design og teknologi og utmerker seg ved sin omtanke for detaljer. Savior Terrengdyktig modulær redningsrobot tilfredsstiller behov på en strålende måte, berører ønsker, sjarmerer følelser og vekker nysgjerrighet.
Press Kit
- Unique Properties
- Terrain adaptability can rely on LiDAR sensors. The robot automatically switches wheels and feet according to the terrain and drives in complex terrain. The modular design provides different rescue modules to meet various rescue needs. The hydrogen motor is rechargeable and can be refueled with hydrogen. It has a long endurance and can run for a long time. AI can analyze actions autonomously.
- Dimensions & Packaging
- The dimensions of the robot are 1000mm in length, 996mm in width, and 428mm in height
- Tags
- Intelligent rescue, modular design, hydrogen energy, AI adaptation, disaster relief
- Production Technology
- Manufacturing of core components such as precision robot skeletons and drive systems. AI integration enhances the robot's autonomous analysis capabilities through learning model training. Energy systems are used to develop hydrogen engine charging and endurance technologies.
- Design Challenge
- How to balance the durability and maneuverability of the caster structure. How to improve the endurance of the hydrogen engine. Integrate the accuracy and stability of the AI system to work uninterruptedly in complex environments.
- Research
- This study develops a terrain intelligent rescue robot with modular design, integrated aluminum, and adaptive tire structure, which can quickly perform search and rescue, medical treatment, transportation, communication and other tasks in disaster areas.
Improve rescue efficiency, reduce casualties, and promote the development of emergency rescue technology. - Inspiration
- The inspiration for this design comes from the limitations and inefficiency of traditional rescue methods when natural disasters occur frequently. Faced with complex terrain and harsh environment, traditional rescue equipment often has difficulty reaching the scene quickly, resulting in rescue delays. Therefore, the design team hopes to break through the existing technical bottlenecks through the terrain intelligent rescue robot, improve rescue efficiency, and reduce disaster losses.
- Project Duration
- It starts from March 1, 2024 and ends on June 25, 2024, and is located at Lu Xun Academy of Fine Arts
- Operation Flow
- Start the robot and activate the core functional modules. Select the search and rescue, medical, transportation or communication module according to the mission requirements. The lidar sensor starts to monitor the terrain, and the robot switches the driving mode adaptively. The AI system analyzes the mission data and autonomously plans the action path. After completing the mission, return to the base or wait for further instructions.
- Patents
- Mingze Gao
