NI · Project

Goat-Inspired Robots That Monitor Protected Natural Habitats Autonomously

environmentTestedTRL 5

nih2020.eu

Imagine trying to check the health of every forest, dune, and mountain trail across 18% of Europe's land — right now, that's all done by people hiking through rough terrain for hours. This project built robots inspired by mountain goats that can actually walk over rocks, uneven ground, and slippery surfaces without falling apart. They developed special adaptive feet and soft-body joints so these robots can survive the real outdoors, not just a lab floor. The goal is to let these machines take over the grueling fieldwork of environmental monitoring across Europe's Natura 2000 protected areas.

By the numbers

1 million

Species threatened by global warming and pollution

8 million

Total species in forests and oceans on the planet

18%

EU land area covered by Natura 2000 network

EU marine territory covered by Natura 2000

30%

Target land and sea coverage by 2030

Prototypes of mountain goat hoof developed

Prototypes of compliant joint knee developed

Consortium partners across 5 countries

Total project deliverables

The business problem

What needed solving

Europe's Natura 2000 network — covering 18% of EU land and 6% of marine territory, expanding to 30% by 2030 — requires constant environmental monitoring that today relies entirely on human operators hiking through wild terrain for hours. Flying drones lack the energy autonomy for sustained missions, and existing ground robots cannot handle the uneven, slippery, and irregular surfaces found in real outdoor environments like dunes, forests, and mountains.

The solution

What was built

The project built 3 distinct quadruped robot configurations: a standard robot with adaptive feet, a standard quadruped, and a goat-inspired robot with specialized hoof-knee-hip systems. Concrete deliverables include 4 mountain goat hoof prototypes, 4 compliant joint knee prototypes, goat-inspired hip and body prototypes, adaptive foot prototypes, full hardware-software integration for all 3 robots, virtual and physical testbed prototypes, and a benchmarking framework — 28 deliverables in total.

Audience

Who needs this

Environmental monitoring consultancies surveying Natura 2000 and other protected areasNational park and wildlife management agenciesRobotics companies seeking rough-terrain locomotion technologyUtility and infrastructure operators inspecting assets in remote mountainous terrainPrecision agriculture companies needing robots that work on uneven farmland

Business applications

Who can put this to work

Environmental Monitoring & Conservation

mid-size

Target: Environmental consultancies and protected area management agencies

If you are an environmental consultancy contracted to survey Natura 2000 sites and struggling with the cost of sending human teams into remote alpine or coastal terrain — this project developed goat-inspired quadruped robots with adaptive feet that can traverse dunes, forests, and mountains autonomously. The robots were built with 4 prototype hooves and full hardware-software integration across 3 robot configurations, designed to replace or supplement costly manual habitat surveys.

Robotics & Autonomous Systems

SME

Target: Robotics companies developing outdoor or field robots

If you are a robotics manufacturer looking to move beyond factory floors and controlled environments — this project solved the core problem of ground robots failing on uneven, slippery, and irregular outdoor terrain. They built finalized prototypes including adaptive feet, compliant joint knees, and a goat-inspired hip-body system across 28 deliverables. The soft-robotics body design could license into your product line for any application requiring rough-terrain mobility.

Infrastructure & Utilities Inspection

enterprise

Target: Utility companies and infrastructure operators in remote areas

If you are a utility operator maintaining pipelines, power lines, or installations in mountainous or forested areas where drone flight time is too short — this project addressed exactly the energy autonomy limitation of flying robots. Their ground-based quadruped robots with 4 prototype adaptive feet and soft articulated frames can physically traverse terrain that wheeled robots cannot reach, enabling persistent inspection without human risk.

Frequently asked

Quick answers

What would it cost to deploy these robots for habitat monitoring?

Based on available project data, specific unit costs are not disclosed. The project was funded as a Research and Innovation Action with 9 partners across 5 countries, which typically indicates significant R&D investment. Commercial pricing would depend on licensing terms negotiated with the consortium, primarily led by Universita di Pisa.

Can these robots scale to monitor large protected areas?

The project targeted the Natura 2000 network, which covers 18% of EU land area and nearly 6% of marine territory, with plans to expand to 30% coverage by 2030. The robots were designed for dunes, grasslands, forests, and alpine terrains. Scaling would require manufacturing partnerships beyond the current 1 industrial partner in the consortium.

What is the IP situation and can I license this technology?

The consortium of 9 partners across 5 countries (Italy, Spain, Netherlands, UK, Switzerland) jointly developed the technology. Key IP likely covers the adaptive foot design (4 prototypes), compliant joint knee (4 prototypes), and the goat-inspired hip-body system. Licensing inquiries should go through the coordinator, Universita di Pisa in Italy.

How does this comply with environmental regulations for deploying robots in protected areas?

The project was explicitly designed to serve the European Green Deal and Natura 2000 monitoring requirements. The robots were built to operate in protected biodiversity-rich areas including dunes, forests, and mountains. Regulatory approval for deploying autonomous systems in specific protected sites would still need to be obtained locally.

What is the timeline from current state to commercial deployment?

The project ran from January 2021 to March 2024 and delivered finalized hardware-software integrated prototypes by month 37. The technology has been tested in prototype form but would likely need 2-3 more years of commercial engineering, ruggedization, and field validation before market deployment.

Can the robot technology integrate with existing environmental monitoring systems?

The project developed a benchmarking framework with detailed system abilities, testbed requirements, and experimental protocols. The robots combine artificial cognition with soft-robotics bodies, and testbed prototypes (both virtual and physical) were delivered. Integration with existing GIS or monitoring platforms would require additional development.

Consortium

Who built it

The NI consortium has 9 partners spread across 5 countries (Italy, Spain, Netherlands, UK, Switzerland), heavily weighted toward academia with 6 universities and 2 research organizations. Only 1 industrial partner and 1 SME participate, giving an 11% industry ratio — this signals deep research quality but limited commercial readiness. The coordinator is Universita di Pisa in Italy, a strong robotics institution. For a business buyer, this means the science is solid but you would likely need to bring your own manufacturing and commercialization capability to turn these prototypes into deployable products.

UNIVERSITA DI PISACoordinator · IT
IMPERIAL COLLEGE OF SCIENCE TECHNOLOGY AND MEDICINEparticipant · UK
QBROBOTICS SRLparticipant · IT
UNIVERSITY OF DURHAMparticipant · UK
AGENCIA ESTATAL CONSEJO SUPERIOR DE INVESTIGACIONES CIENTIFICASparticipant · ES
ISTITUTO SUPERIORE PER LA PROTEZIONE E LA RICERCA AMBIENTALEparticipant · IT
EIDGENOESSISCHE TECHNISCHE HOCHSCHULE ZUERICHparticipant · CH
KINGSTON UNIVERSITY HIGHER EDUCATION CORPORATIONparticipant · UK
TECHNISCHE UNIVERSITEIT DELFTparticipant · NL

How to reach the team

Universita di Pisa, Italy — contact through SciTransfer for a warm introduction to the research team

Order a report on this consortium See UNIVERSITA DI PISA profile →

Next steps

Talk to the team behind this work.

Want to explore licensing the adaptive foot or quadruped robot technology for your terrain-monitoring needs? SciTransfer can arrange a direct conversation with the NI research team and provide a tailored technology brief.

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