Soft substrate–interconnect interface. Classification centers on patterning, attachment to the substrate and electrical continuity during deformation.
Addresses how conductive paths are formed and attached on soft substrates to carry signals and power through fabrication and deformation.
Primary assignments in this theme: 14 · Subthemes are editorial proposals for this library. Title-based classification is distinct from full-text verification.
Research on patterning, substrate attachment and electrical connections in liquid conductors, including liquid metals.
Advanced Science, Accepted (2026)
Public-title references to liquid-metal particles and soft electronics support a provisional liquid-conductor shelf. Without an abstract/DOI, substrate attachment, routing continuity and component joining remain unverified.
Industrial Chemistry & Materials, 2(3), 361-377 (2024)
Conductor sections motivate the primary liquid-routing placement, but this review also covers adhesion, encapsulation and antifouling. Its breadth requires multiple themes and an ambiguity flag.
Advanced Functional Materials, 34(31), 2311696 (2024)
Surface-functionalized EGaIn particles form deformable electrochemical electrodes. The work connects to liquid conductors, but its focus on electrode reactivity rather than interconnect continuity makes this an extended assignment.
Research on electrical transport during deformation in fibers and stretchable electrodes.
International Journal of Bioprinting, 9(5), 765 (2023)
Printed stretchable conductive patterns and electrical recovery after cutting were tested. Tissue adhesion/mechanics are secondary; this subtheme includes stretchable electrodes as well as fibers.
ACS Applied Materials & Interfaces, 10 (42), 36094-36101 (2018)
The abstract explicitly describes moisture-resistant Kevlar composite interconnects; unverified host response does not justify a host secondary tag.
ACS Nano, 12(5), 4259-4268 (2018)
Resistance changes in deforming conductive fibers directly fit routing; performance depends on strain history.
Journal of Semiconductors, 39 (1), 011009 (2018)
Conductive fibers support routing, but the review also covers delivery and tissue fabrication; its entire scope is not electrical routing.
Advanced Functional Materials, 25 (21), 3114-3121 (2015)
Silver-nanowire reinforcement supports electrical transport in stretchable conductive fibers. The abstract’s wearable-electronics focus supports placement under conductive fibers in deformable electrical routing.
Advanced Materials, 27 (15), 2433-2439 (2015)
The abstract supports coated conductive fibres and woven pressure sensing. Keep the conductive-fibre shelf, flagged because transduction does not establish strain-invariant routing.
Research on soft substrates that support conductive paths and on substrate–interconnect interfaces.
ChemNanoMat, 5(6), 729-737 (2019)
Routing remains relevant to the conductive soft substrate, but a monolithic mat with cell support extends beyond a discrete substrate–interconnect junction.
A provisional grouping for foundational materials or processes that may connect to this theme. It does not establish theme fit; each paper retains a rationale and ambiguity flag.
NPG Asia Materials, 8(4), e262 (2016)
The body supports Pd-selective decoration, conduction and a PET heater; deformable-routing lifetime and connection interfaces remain outside the checked evidence. Retain routing foundations.
Applied Surface Science, 344, 52-56 (2015)
Public PDF Raman/electrical results support energy-dependent graphene-defect research, not a deformable-routing interface demonstration. Retain routing materials foundations.
Scientific Reports, 5, 12306 (2015)
The abstracts support silicon-based GO reduction and film formation, not deformable-interconnect attachment. Retain routing foundations.
Thin Solid Films, 519 (2), 823-828 (2010)
Silicon–PDMS wrinkles inform deformable structures; electrical routing continuity is unverified.