Publication result detail

Multi-material 3D printed smart floor tiles with triboelectric energy generation and security monitoring

MAPPOLI, S.; GHOSH, K.; PUMERA, M.

Original Title

Multi-material 3D printed smart floor tiles with triboelectric energy generation and security monitoring

English Title

Multi-material 3D printed smart floor tiles with triboelectric energy generation and security monitoring

Type

WoS Article

Original Abstract

With the growing demand for integrated smart home systems driven by advancements in the Internet of Things (IoT) and smart city initiatives, the need for efficient, simple, and self-sustaining sensors has become essential. Triboelectric nanogenerators (TENGs) have recently emerged as a promising device for both energy harvesting and sensing. However, the fabrication of different TENG layers using conventional techniques is often complex, time-intensive, and involves multiple processing steps. Here, a single-step multi-material 3D printing (MMP) approach is used to fabricate the fully functional TENG device, consisting of positive and negative triboelectric layers, current collectors and supporting substrate. Nylon 6 and carbon/polyvinylidene fluoride (C/PVDF) filaments are selected for positive and negative triboelectric layers, respectively and conductive carbon/polylactic acid (C/PLA) filament was selected for both current collectors and wood/PLA is selected for both top and bottom supporting layers. The MMP-TENG is integrated with electronics to showcase its capability for remote monitoring in smart home settings to detect real-time fall detection and security monitoring. This research will pave the way for fabricating a smart floor for security monitoring and energy generation in a smart building.

English abstract

With the growing demand for integrated smart home systems driven by advancements in the Internet of Things (IoT) and smart city initiatives, the need for efficient, simple, and self-sustaining sensors has become essential. Triboelectric nanogenerators (TENGs) have recently emerged as a promising device for both energy harvesting and sensing. However, the fabrication of different TENG layers using conventional techniques is often complex, time-intensive, and involves multiple processing steps. Here, a single-step multi-material 3D printing (MMP) approach is used to fabricate the fully functional TENG device, consisting of positive and negative triboelectric layers, current collectors and supporting substrate. Nylon 6 and carbon/polyvinylidene fluoride (C/PVDF) filaments are selected for positive and negative triboelectric layers, respectively and conductive carbon/polylactic acid (C/PLA) filament was selected for both current collectors and wood/PLA is selected for both top and bottom supporting layers. The MMP-TENG is integrated with electronics to showcase its capability for remote monitoring in smart home settings to detect real-time fall detection and security monitoring. This research will pave the way for fabricating a smart floor for security monitoring and energy generation in a smart building.

Keywords

3D-printing; multi-material printing; TENG; smart floor; smart building

Key words in English

3D-printing; multi-material printing; TENG; smart floor; smart building

Authors

MAPPOLI, S.; GHOSH, K.; PUMERA, M.

Released

13.03.2025

Publisher

TAYLOR & FRANCIS LTD

Location

ABINGDON

ISBN

1745-2767

Periodical

Virtual and Physical Prototyping

Volume

20

Number

1

State

United Kingdom of Great Britain and Northern Ireland

Pages from

1

Pages to

10

Pages count

10

URL

Full text in the Digital Library

BibTex

@article{BUT198092,
  author="Shidhin {Mappoli} and Kalyan {Ghosh} and Martin {Pumera}",
  title="Multi-material 3D printed smart floor tiles with triboelectric energy generation and security monitoring",
  journal="Virtual and Physical Prototyping",
  year="2025",
  volume="20",
  number="1",
  pages="1--10",
  doi="10.1080/17452759.2025.2457580",
  issn="1745-2759",
  url="https://www.tandfonline.com/doi/full/10.1080/17452759.2025.2457580"
}

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