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Ionic imbalance induced self-propulsion of liquid metals.Frequency-Switchable Microfluidic CSRR-Loaded QMSIW Band-Pass Filter Using a Liquid Metal Alloy.Emerging applications of liquid metals featuring surface oxides.Unconventional microfluidics: expanding the discipline.Ionic current devices-Recent progress in the merging of electronic, microfluidic, and biomimetic structures.Material approaches to stretchable strain sensors.Design and application of 'J-shaped' stress-strain behavior in stretchable electronics: a review.Deposition, patterning, and utility of conductive materials for the rapid prototyping of chemical and bioanalytical devices.Emergence of microfluidic wearable technologies.Liquid metal enabled microfluidics.Soft Multifunctional Composites and Emulsions with Liquid Metals.Microfluidic serpentine antennas with designed mechanical tunability.Tape transfer atomization patterning of liquid alloys for microfluidic stretchable wireless power transfer.Tape transfer printing of a liquid metal alloy for stretchable RF electronics.Self-healing stretchable wires for reconfigurable circuit wiring and 3D microfluidics.Direct monitoring of lipid transfer on exposure of citrem nanoparticles to an ethanol solution containing soybean phospholipids by combining synchrotron SAXS with microfluidics.All-soft, battery-free, and wireless chemical sensing platform based on liquid metal for liquid- and gas-phase VOC detection.The third decade of microfluidics.Oxidation-Mediated Fingering in Liquid Metals.All-Printed Flexible and Stretchable Electronics.Design and characterization of a single channel two-liquid capacitor and its application to hyperelastic strain sensing.An oxidized liquid metal-based microfluidic platform for tunable electronic device applications.A handy liquid metal based electroosmotic flow pump.PDMS based coplanar microfluidic channels for the surface reduction of oxidized Galinstan.3D structures of liquid-phase GaIn alloy embedded in PDMS with freeze casting.High-density soft-matter electronics with micron-scale line width.Electrowetting at a liquid metal-semiconductor junctionProspects of low temperature co-fired ceramic (LTCC) based microfluidic systems for point-of-care biosensing and environmental sensingStimulus-active polymer actuators for next-generation microfluidic devicesMorphology design and control of polymer particles by regulating the droplet flowing mode in microfluidic chipsUltrastretchable, cyclable and recyclable 1- and 2-dimensional conductors based on physically cross-linked thermoplastic elastomer gelsLiquid gallium and the eutectic gallium indium (EGaIn) alloy: Dielectric functions from 1.24 to 3.1 eV by electrochemical reduction of surface oxidesMethods to pattern liquid metalsProduction of Liquid Metal Spheres by MoldingBlending Electronics with the Human Body: A Pathway toward a Cybernetic FutureInkjet Printed Polyethylene Glycol as a Fugitive Ink for the Fabrication of Flexible Microfluidic Systems
P2860
Q27333797-7221C2F6-1CBB-43E7-82E2-C34519B308E9Q33647788-7ECB59FC-9746-4E05-81EE-462A6D2F789BQ34510831-4761D992-EA2E-45A0-89B3-D9497C120E1CQ37723863-0E94579E-D8B4-45F0-88ED-42D500C0796FQ38176908-81ADA37E-282C-4865-B304-D2CA6EB4497AQ38340294-214FCC2A-F4E6-4F63-B208-C92B1308AD5CQ38687898-981E2F1B-26FD-48BE-8AAF-44DB28E4DBEBQ38784288-3E2FBDF8-52FD-416A-AA44-85E1CF84D3BFQ38810346-F4285BA0-F204-458A-A643-A787B276AB58Q39146437-DEC8A3F9-6ACA-4351-8159-8962E2932606Q39251696-5FF290F8-87CD-41C6-AC6E-6D7A6D65361AQ40216638-4917E191-A349-48D5-86B3-5A986CE81A73Q40256436-B56225E7-0655-4BDF-A8B6-3FEA50E67E65Q42959367-480F46ED-B973-400F-B1CF-C3A08787CEB4Q44867233-AEF0924F-0161-4AA7-8DE1-A68CEEFB920BQ47880072-B4A20C8E-8E70-46DD-8046-9644471D7F6FQ48019934-8E6BDB7C-340C-4FF2-BD4F-7F7A43D8DA19Q48271376-5F4953F8-E7AD-4EF2-8A9B-24A51A79B35CQ50013027-6304B17B-E3A9-460E-8C0D-7DFAAF35D224Q50985082-6EB0B2FD-D835-48C2-9EB0-A377F4E5F618Q51501121-8898C72B-6FC9-46C9-B7D7-8C7B9EDF8934Q51504221-9E193982-37DA-4716-A6D4-28581E4BAA04Q51518399-7180B745-F09E-43FD-B1ED-7C9BCADC2324Q51526770-2BAAE126-A6CF-4E7E-BE75-94899D152A91Q51528245-E4DB5F32-BBE6-4850-810E-30CC5D7974AAQ53533421-CFF70A38-4357-4234-A0C1-A3A2F0AEA382Q55879006-FAF7892F-5CC3-4ED1-873D-0C135B43D1CBQ57063109-B5A19C09-4AF7-4065-825C-2F98F2EB06DCQ57346109-CE8FA8E9-D749-4E32-9634-6654D6F70DBBQ57367785-8D8E4022-4841-4741-831F-1BDBF39231A3Q57428891-E10972C2-0795-4590-99FC-DBF06E316DD9Q57430917-4EF6F7C7-2831-49B0-A66F-581353F163B8Q57439702-CF7C655D-49BD-4B18-8A24-7D0E60F77AFBQ57440228-6777F172-9587-4B63-B976-068D7049BEC3Q57824329-95ED6ACA-9348-4B1D-8128-867E3ADAB132Q58568295-6B911E5B-8E9A-4663-BCF7-2610C096FFE8
P2860
description
article científic
@ca
article scientifique
@fr
articol științific
@ro
articolo scientifico
@it
artigo científico
@gl
artigo científico
@pt
artigo científico
@pt-br
artikel ilmiah
@id
artikull shkencor
@sq
artículo científico
@es
name
Microfluidic electronics.
@en
type
label
Microfluidic electronics.
@en
prefLabel
Microfluidic electronics.
@en
P356
P1433
P1476
Microfluidic electronics.
@en
P2093
P304
P356
10.1039/C2LC21176A
P50
P577
2012-06-18T00:00:00Z