Short answer

Incorporate pressure-responsive kirigami laminar jamming for adaptive robotic systems that require frequent shape and stiffness changes for multidomain operation to significantly reduce energy consumption.

Field: Final Production
Source: Advanced Intelligent Systems (2025)
Method: Experimental analysis and energetic evaluation
Evidence: Strong effect

Utilizing pressure-responsive kirigami laminar jamming significantly minimizes the energy expenditure required for shape and stiffness changes in adaptive robots, enabling efficient domain transitions. This final production research insight is drawn from a 2025 study published in Advanced Intelligent Systems. Using Experimental analysis and energetic evaluation, researchers explored how this design variable affects real-world outcomes. The key design takeaway: Incorporate pressure-responsive kirigami laminar jamming for adaptive robotic systems that require frequent shape and stiffness changes for multidomain operation to significantly reduce energy consumption.

Study

Final ProductionNew This WeekStrong effect

Kirigami Laminar Jamming Reduces Morphing Energy Cost by 98.5% in Multidomain Robots

Advanced Intelligent Systems · 2025

Key Findings

01JART achieves a 98.5% reduction in the energetic cost of morphing compared to thermally driven robots.
02The pressure-responsive mechanism allows for temperature-independent energy expenditure during morphing.
03The system enables rapid stiffness switching and decoupled control of stiffness and shape.
04JART demonstrated efficient terrestrial-aquatic-terrestrial transitions.

Application

Design takeaway

How to apply

When designing robots for tasks involving transitions between distinct environments (e.g., underwater to land, air to ground), prioritize mechanisms that minimize energy expenditure during the transition phase, such as pressure-activated jamming.

Project actions

01Consider the energy cost of any shape-changing mechanisms in your design.
02Explore novel material properties and structural designs to achieve desired functional changes efficiently.

Method & Evidence

AimHow can kirigami laminar jamming be employed to reduce the energetic cost of morphing in adaptive robots for efficient multidomain transitions?

MethodExperimental analysis and energetic evaluation

ProcedureA novel robotic system, the Jamming Amphibious Robotic Turtle (JART), was developed using pressure-responsive, topologically altered kirigami laminar jamming. Its morphing mechanism was analyzed energetically and compared to thermally driven predecessors. System-level evaluations were conducted to demonstrate domain transition capabilities.

ContextRobotics, Adaptive Systems, Multidomain Locomotion

Variables

IVMorphing mechanism type (kirigami laminar jamming vs. thermal)

DVEnergetic cost of morphing, efficiency of domain transition

CVRobot design (e.g., overall size, intended function), environmental conditions (though temperature independence is a feature)

Strengths & Limitations

Strengths

+Significant reduction in energy cost demonstrated.
+Novel application of kirigami and jamming for robotics.
+Successful demonstration of multidomain transition.

Limitations

The complexity of implementing kirigami laminar jamming might be a practical limitation for some design projects. The specific materials and manufacturing processes may also be difficult to replicate without specialized equipment.

Reliability & validity

The study's validity is supported by quantitative energetic analysis and system-level performance demonstrations. Reliability would depend on the repeatability of the kirigami fabrication and the consistent performance of the pressure-responsive jamming mechanism across multiple trials and environmental conditions.

Think critically

How might the scalability and robustness of kirigami laminar jamming be further improved for industrial or extreme environmental applications?

Design Principles

"Minimize the energetic cost of actuation and transformation in adaptive systems by leveraging material properties and structural design."

This innovation addresses a critical bottleneck in the development of robots designed for complex, multi-domain environments. By drastically reducing the energy cost of morphing, designers can create more practical and deployable robotic systems that can seamlessly transition between different terrains or mediums without prohibitive energy penalties.

What This Means for Your Design

This research shows a new way to make robots change their shape and stiffness using air pressure and a special folded material (kirigami jamming). It uses way less energy than older methods, making robots much better at moving between different places like land and water.

How to use in your project

1.Reference this study when discussing the energy efficiency of adaptive mechanisms or the design of robots for multidomain applications.

Add to My Project

Quick Cite

Paragraph starter

The development of adaptive robotic systems necessitates a focus on energy-efficient morphing mechanisms. Research by Ramirez et al. (2025) demonstrates that employing pressure-responsive kirigami laminar jamming can reduce the energetic cost of shape and stiffness changes by up to 98.5%, enabling more effective multidomain transitions. This approach offers a significant advantage over thermally driven methods by decoupling morphing from ambient temperature and allowing for rapid, controlled adjustments.

Source

Advanced Intelligent Systems

Decreasing the Cost of Morphing in Adaptive Morphogenetic Robots

journal · 2025

View source

Questions About This Research

What does the research say about kirigami laminar jamming reduces morphing energy cost by 98.5% in multidomain robots?: Incorporate pressure-responsive kirigami laminar jamming for adaptive robotic systems that require frequent shape and stiffness changes for multidomain operation to significantly reduce energy consumption. Evidence: Advanced Intelligent Systems (2025).
Why does "Kirigami Laminar Jamming Reduces Morphing Energy Cost by 98.5% in Multidomain Robots" matter for design?: This innovation addresses a critical bottleneck in the development of robots designed for complex, multi-domain environments. By drastically reducing the energy cost of morphing, designers can create more practical and deployable robotic systems that can seamlessly transition between different terrains or mediums without prohibitive energy penalties.
How can designers apply this research?: Incorporate pressure-responsive kirigami laminar jamming for adaptive robotic systems that require frequent shape and stiffness changes for multidomain operation to significantly reduce energy consumption.
What were the main findings?: JART achieves a 98.5% reduction in the energetic cost of morphing compared to thermally driven robots.. The pressure-responsive mechanism allows for temperature-independent energy expenditure during morphing.. The system enables rapid stiffness switching and decoupled control of stiffness and shape.. JART demonstrated efficient terrestrial-aquatic-terrestrial transitions.
What research method was used?: Experimental analysis and energetic evaluation.
How strong is the evidence?: Evidence strength is rated Strong effect, based on a 2025 journal from Advanced Intelligent Systems.
What should I do differently in my next project?: When designing robots for tasks involving transitions between distinct environments (e.g., underwater to land, air to ground), prioritize mechanisms that minimize energy expenditure during the transition phase, such as pressure-activated jamming.
What are the limitations?: The study focuses on a specific robotic platform (JART) and may require adaptation for different scales or types of robots. Long-term durability and maintenance of the kirigami jamming mechanism in harsh environments were not extensively detailed.