Edwin Jager

Professor

Linköping University

Sweden

Research Interests

Explore related searches

Professors in Sweden

Contact this professor

ORCID

Google Scholar

Academic Page

About

Professor Edwin Jager is a faculty member at Linköpings universitet in Sweden. His research focuses on advanced materials and applications including micromotors, conducting polymer artificial muscles, and textile actuators. Recent articles highlight developments in electroactive polymers and their potential in biomedical applications such as bone tissue engineering. He is actively engaged in the study of innovative approaches to enhance the functionality of smart textiles and actuators.

Edwin Jager

Research Interests

Explore related searches

Contact this professor

About

Articles (16)

On–Off Switchable Micromotors for Use in Steerable Microvehicles

PEDOT/Polypyrrole Core–Sheath Fibers for Use as Conducting Polymer Artificial Muscles

A Straightforward Approach of Wet‐Spinning Poly(3,4‐ethylenedioxythiophene):Polystyrene Sulfate Fibers for Use in All Conducting Polymer‐Based Textile Actuators

Textile Actuators Comprising Reduced Graphene Oxide as the Current Collector

Textile Muscle Fibers Made by and for Continuous Production Using Doped Conducting Polymers

Synchronous Cation-Driven and Anion-Driven Polypyrrole-Based Yarns toward In-Air Linear Actuators

Plant‐Like Tropisms in Artificial Muscles

Electrochemical control of bone microstructure on electroactive surfaces for modulation of stem cells and bone tissue engineering

Variable Stiffness Actuators with Covalently Attached Nanofragments that Induce Mineralization

Electrochemical Considerations for the Electropolymerization of PPy on PEDOT:PSS for Yarn Actuator Applications

Effect of Core Yarn on Linear Actuation of Electroactive Polymer Coated Yarn Actuators

Linear contracting and air-stable electrochemical artificial muscles based on commercially available CNT yarns and ionically selective ionogel coatings

Ionofibers: Ionically Conductive Textile Fibers for Conformal i‐Textiles

Biohybrid Variable Stiffness Soft Actuators that Self‐Create Bone

Electrochemically Driven Yarn and Textile Actuators

Enzymatic Biofuel Cells Embedded Polymer-Based Soft Actuators

Collaborators (5)

Emilio Hara

cedric vancaeyzeele

Zhonghua Zhu

Jonas Stålhand

Cédric Plesse

How do I reach out?

Meet Kite AI