2023
DOI: 10.1002/adfm.202308703
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Stimuli‐Responsive Liquid Metal Hybrids for Human‐Interactive Electronics

HoYeon Kim,
Guangtao Zan,
Youngwoo Seo
et al.

Abstract: The development of stimuli‐responsive liquid metal hybrids (SrLMHs) is of great interest, owing to their ability to induce responsivity and innovative properties to liquid metal (LM) when hybridized. Various stimuli‐responsivities yield new realms for SrLMHs in the fields of human‐interactive electronics (HIEs). This review provides an overview on the development of SrLMHs for HIEs. First, discussion is on SrLMH systems regarding their configuration, the materials utilized for the establishment of new hybrid m… Show more

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Cited by 8 publications
(3 citation statements)
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“…It is widely used in flexible devices based on the manufacturing, patterning, and LM particle composites [88,89]. In addition to its inherent ability to conduct electricity, liquid metal has the properties of both liquid and metal, which makes it widely used in stretchable flexible electronics [90][91][92]. Wearable functional devices often use metal patterns to achieve various properties.…”
Section: Self-healing Materialsmentioning
confidence: 99%
“…It is widely used in flexible devices based on the manufacturing, patterning, and LM particle composites [88,89]. In addition to its inherent ability to conduct electricity, liquid metal has the properties of both liquid and metal, which makes it widely used in stretchable flexible electronics [90][91][92]. Wearable functional devices often use metal patterns to achieve various properties.…”
Section: Self-healing Materialsmentioning
confidence: 99%
“…Next-generation approaches to achieving flexible brain–computer interfaces and neurological diagnostics require microfabrication or nanomaterials to enable a comfortable bridge between implantable devices and the feeble human brain. Flexible neural interfaces with high comfortability and minimal invasiveness may promote the long-term recording of neural activity, leading to advances in neuroscientific studies. In addition, flexible neural interfaces may introduce transformative changes in diagnosis and therapies for peripheral disease by electrical stimulation. However, the enormous mechanical mismatch between rigid implantable devices and soft brain tissues inevitably causes damage and inflammatory response. , Therefore, stretchable biodevices with mechanically compliant living brain tissue are desired for long-term implantation and signal recording. , Developing stretchable interfaces with superior mechanical properties can deform soft brain tissues and fully record neural activity under long-term active environments. , …”
Section: Introductionmentioning
confidence: 99%
“…With the rapid advancements in information technology, new and captivating scenarios such as smart medical applications, [1][2][3] the Internet of Things, 4,5 and human-machine interaction [6][7][8] have gained increasing popularity. Consequently, there is a growing demand for sensitive, lightweight, safe, flexible, and snug-fitting electronic devices.…”
Section: Introductionmentioning
confidence: 99%