Search research articles

ABOUT JoVE

Overview Leadership Blog JoVE Help Center

AUTHORS

Publishing Process Editorial Board Scope & Policies Peer Review FAQ Submit

LIBRARIANS

Testimonials Subscriptions Access Resources Library Advisory Board FAQ

RESEARCH

JoVE Journal Methods Collections JoVE Encyclopedia of Experiments Archive

EDUCATION

JoVE Core JoVE Business JoVE Science Education JoVE Lab Manual Faculty Resource Center Faculty Site

Terms & Conditions of Use

Related Concept Videos

Elastic Potential Energy

Elastic Potential Energy

Elastic potential energy is the energy stored as a result of the deformation of an elastic object, such as the stretching of a spring. An object is elastic if it returns to its original shape and size after being deformed.
Potential energy is also associated with the elastic force exerted by an ideal spring. The work done by this force can be represented as a change in the elastic potential energy of the spring. Thus, the work done by a perfectly elastic spring, in one dimension, depends...

Energy Stored in a Capacitor

Energy Stored in a Capacitor

When an archer pulls the string in a bow, he saves the work done in the form of elastic potential energy. When he releases the string, the potential energy is released as kinetic energy of the arrow. A capacitor works on the same principle in which the work done is saved as electric potential energy. The potential energy (UC) could be calculated by measuring the work done (W) to charge the capacitor.

Strain-Energy Density

Strain-Energy Density

Understanding the strain energy density in materials under axial load is crucial for evaluating their mechanical behavior and durability. When a rod is subjected to such a load, it elongates and stores energy, known as strain energy, as potential energy within the material. This energy is measured in terms of energy per unit volume.
In the elastic region of a material, the relationship between the stress and the strain is linear and follows Hooke's Law. The strain energy density in this region...

Strain Energy

Strain Energy

Strain energy is a fundamental concept in the field of materials science and structural engineering, describing the energy absorbed by a material or structure when it is deformed under load.
Consider a rod that is fixed at one end and subjected to an axial force at the free end. This axial force induces stress within the rod, leading to its elongation. As the axial force increases, so does the elongation of the rod, illustrating a direct relationship between the force applied and the resulting...

Potential Energy

Potential Energy

The energy stored by a structure and location of matter in space is called potential energy. For instance, raising a kettlebell changes its spatial location and increases its potential energy. Similarly, a stretched rubber band contains potential energy which, under certain conditions, can be converted into other forms of energy, such as kinetic energy.
Chemical bonds that form attractive forces between atoms also contain potential energy, called chemical energy. When a chemical reaction...

Potential Energy

Potential Energy

A conservative force, such as a gravitational or elastic force, gives the body the capacity to do work. This capacity, measured as the potential energy, depends on the body's location or “position” relative to a fixed reference position or datum. The gravitational potential energy is considered zero at the reference point. Suppose a body is located at some vertical distance above a fixed horizontal reference or datum. In that case, the weight of the body has positive gravitational potential...

You might also read

Related Articles

Articles linked to this work by shared authors, journal, and citation graph.

Sort by

Same author

A Straightforward Access to Sustainable and Reusable Melanin-Supported Palladium Catalysts: Characterization and Application in Sonogashira Cross-Coupling Reactions.

ACS applied materials & interfaces·2026

Same author

Irregular hierarchical-porous polymer for high-performance soft thermoelectrics.

Science (New York, N.Y.)·2026

Same author

Rod-like percolation of conducting polymers via vapor-phase polymerization into cellulose nanofibril hydrogels.

Carbohydrate polymers·2026

Same author

High Photostrictive Strain Rate in Ferroelectric AlScN Thin Films.

Advanced materials (Deerfield Beach, Fla.)·2025

Same author

Optimizing Electrochemical Microprinting of Conducting Polymers: Scanning Electrochemical Cell Microscopy (SECCM) Coupled with Conveyor-Belt Surface Analysis.

Small methods·2025

Same author

Recyclable quasi-solid-state dynamic windows via reversible dual-metal electrodeposition for building energy modulation.

Nature communications·2025

Same journal

Sodium-Based Battery Component Design: Imitating Lithium or Forging New Paths?

Small (Weinheim an der Bergstrasse, Germany)·2026

Same journal

Enhancing Birefringence of Sulphates by Polarity Modification in Planar Cations.

Small (Weinheim an der Bergstrasse, Germany)·2026

Same journal

In Situ Atomic-Scale Observation of Preferential Premelting at Oxide Crystal Defects.

Small (Weinheim an der Bergstrasse, Germany)·2026

Same journal

Thickness-Dependent Semiconductor-Metal Transition in Two-Dimensional Nonlayered Magnetic CuCo<sub>2</sub>S<sub>4</sub>.

Small (Weinheim an der Bergstrasse, Germany)·2026

Same journal

Programmable Control Over Radical and Non‑Radical Pathways in Fenton‑Like Catalysis via Carbon‑Encapsulated Iron Nanoreactors.

Small (Weinheim an der Bergstrasse, Germany)·2026

Same journal

Self-Powered MXene@Perovskite Thermoelectric Skin for Multimodal Mid-Infrared Sensing and Human Signal Recognition.

Small (Weinheim an der Bergstrasse, Germany)·2026

See all related articles

Search research articles

Related Experiment Video

Updated: Apr 21, 2026

A Fabrication Method for Highly Stretchable Conductors with Silver Nanowires

A Fabrication Method for Highly Stretchable Conductors with Silver Nanowires

Published on: January 21, 2016

Stretchable energy storage and conversion devices.

Chaoyi Yan, Pooi See Lee

Small (Weinheim an Der Bergstrasse, Germany)

|October 24, 2014

Summary

This summary is machine-generated.

Stretchable electronics, including power sources like supercapacitors and batteries, offer unique functionalities for wearable and implantable devices. This review covers recent advancements in their design and fabrication.

More Related Videos

Equibiaxial Stretching Device for High Magnification Live-Cell Confocal Fluorescence Microscopy

Equibiaxial Stretching Device for High Magnification Live-Cell Confocal Fluorescence Microscopy

Published on: June 13, 2025

A Simple and Scalable Fabrication Method for Organic Electronic Devices on Textiles

A Simple and Scalable Fabrication Method for Organic Electronic Devices on Textiles

Published on: March 13, 2017

Related Experiment Videos

Last Updated: Apr 21, 2026

A Fabrication Method for Highly Stretchable Conductors with Silver Nanowires

A Fabrication Method for Highly Stretchable Conductors with Silver Nanowires

Published on: January 21, 2016

Equibiaxial Stretching Device for High Magnification Live-Cell Confocal Fluorescence Microscopy

Equibiaxial Stretching Device for High Magnification Live-Cell Confocal Fluorescence Microscopy

Published on: June 13, 2025

A Simple and Scalable Fabrication Method for Organic Electronic Devices on Textiles

A Simple and Scalable Fabrication Method for Organic Electronic Devices on Textiles

Published on: March 13, 2017

Area of Science:

Materials Science
Electronics Engineering
Energy Storage

Background:

Conventional rigid electronics face limitations in conforming to complex surfaces.
Stretchable electronics enable new applications in wearable and implantable technologies.
Developing reliable power sources is crucial for independent stretchable systems.

Purpose of the Study:

To review recent progress in stretchable power sources.
To discuss structural and material designs for stretchability.
To analyze fabrication methods and future directions.

Main Methods:

Review of literature on stretchable supercapacitors, batteries, and solar cells.
Analysis of structural and material strategies for mechanical robustness.
Evaluation of fabrication techniques and their associated pros and cons.

Main Results:

Significant advancements in stretchable energy storage and conversion devices.
Diverse approaches to achieve mechanical robustness in electronic components.
Identification of key challenges and opportunities in fabrication.

Conclusions:

Stretchable power sources are vital for next-generation electronic systems.
Material and structural innovations are driving the field forward.
Further research is needed to optimize fabrication and performance for widespread adoption.