
Front view of the flying robot.
Dr Tim Helps
A new drive system for flapping wing autonomous robots has been developed by a University of Bristol team, using a new method of electromechanical zipping that does away with the need for conventional motors and gears.
This new advance, published today in the journal Science Robotics, could pave the way for smaller, lighter and more effective micro flying robots for environmental monitoring, search and rescue, and deployment in hazardous environments.
Until now, typical micro flying robots have used motors, gears and other complex transmission systems to achieve the up-and-down motion of the wings. This has added complexity, weight and undesired dynamic effects.
Taking inspiration from bees and other flying insects, researchers from Bristol’s Faculty of Engineering, led by Professor of Robotics Jonathan Rossiter, have successfully demonstrated a direct-drive artificial muscle system, called the Liquid-amplified Zipping Actuator (LAZA), that achieves wing motion using no rotating parts or gears.
The LAZA system greatly simplifies the flapping mechanism, enabling future miniaturization of flapping robots down to the size of insects.
In the paper, the team show how a pair of LAZA-powered flapping wings can provide more power compared with insect muscle of the same weight, enough to fly a robot across a room at 18 body lengths per second.
They also demonstrated how the LAZA can deliver consistent flapping over more than one million cycles, important for making flapping robots that can undertake long-haul flights.
The team expect the LAZA to be adopted as a fundamental building block for a range of autonomous insect-like flying robots.

Dr Tim Helps, lead author and developer of the LAZA system said: “With the LAZA, we apply electrostatic forces directly on the wing, rather than through a complex, inefficient transmission system. This leads to better performance, simpler design, and will unlock a new class of low-cost, lightweight flapping micro-air vehicles for future applications, like autonomous inspection of off-shore wind turbines.”
Professor Rossiter added: “Making smaller and better performing flapping wing micro robots is a huge challenge. LAZA is an important step toward autonomous flying robots that could be as small as insects and perform environmentally critical tasks such as plant pollination and exciting emerging roles such as finding people in collapsed buildings.”
Original Article: Bristol scientists develop insect-sized flying robots with flapping wings
More from: University of Bristol
The Latest Updates from Bing News & Google News
Go deeper with Bing News on:
Flapping wing autonomous robots
- Autonomous Delivery Robots Market by Product and Geography : Forecast and Analysis 2023 to 2028 with Top Countries Data
Jan 29, 2023 (The Expresswire) -- Autonomous Delivery Robots Market Size is projected to Reach Multimillion USD by 2029, In comparison to 2022, at unexpected CAGR during the forecast Period 2023-2029.
- Autonomous Delivery Robots Market will surpass USD 31.0 billion by 2030 at a CAGR of 9.5% till 2030 : GreyViews
These are the key regions where the Autonomous Delivery Robots market is operating and is predicted to expand soon. The manufacturers and suppliers involved in the Autonomous Delivery Robots ...
- Autonomous Robot Toys Market to Observe Highest Growth of USD 22906.73 Million with Excellent CAGR of 18.80% in the Forecast Period of 2023 to 2030
HOUSTON, Jan. 16, 2023 /PRNewswire/ -- Data Bridge Market Research Published Latest Autonomous Robot Toys Market Study by in-depth analysis about current scenario, the Market size, demand ...
- Autonomous Mobile Robots Market [New Report]: Comprehensive Research Study by Growth Drivers, Business Strategies and Future Prospects (2023-2027)
This report provides in-depth study of “Global Autonomous Mobile Robots Market 2023” using SWOT analysis i.e. Strength, Weakness, Opportunities, and Threat to the organization. The Autonomous ...
- Feathered robotic wing paves way for flapping drones
Therefore, a Swedish-Swiss research team has constructed a robotic wing that can achieve just that -- flapping like a bird, and beyond. "We have built a robot wing that can flap more like a bird ...
Go deeper with Google Headlines on:
Flapping wing autonomous robots
[google_news title=”” keyword=”flapping wing autonomous robots” num_posts=”5″ blurb_length=”0″ show_thumb=”left”]
Go deeper with Bing News on:
Micro flying robots
- To Boost Produce Pollination, Tiny ‘FAIRY Robots‘ Can be Propelled by the Wind Like Seeds
In the future, millions of artificial dandelion seeds carrying pollen could be dispersed freely by natural winds thanks to "soft robotics." ...
- This ‘fairy’ robot flies with the power of light and wind and could pollinate plants
The Flying Aero-robots based on the Light Responsive Materials Assembly, FAIRY robot, is a tiny lightweight robot that relies on wind to float in the air. Interestingly, the robot can be controlled ...
- Incredible 'Fairy' Robot Sails on The Breeze Like a Floating Dandelion
Weighing in at just 1.2 milligrams, a new robot called FAIRY – that's short for Flying Aero-robots based on Light Responsive Materials Assembly – is the first flying bot we've seen based on soft ...
- These tiny flying robots could pollinate crops instead of bees
They can be powered and controlled by a light source. The post These tiny flying robots could pollinate crops instead of bees appeared first on Talker.
- ‘FAIRY’ agricultural robots assist artificial pollination on a micro-scale
Flying Aero-robots based on Light Responsive Materials Assembly – could aid artificial pollination Due to the increasing challenges of the climate crisis, the use of technology in nature and food ...
Go deeper with Google Headlines on:
Micro flying robots
[google_news title=”” keyword=”micro flying robots” num_posts=”5″ blurb_length=”0″ show_thumb=”left”]