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Silicon-based microelectronics have powered the digital revolution, but their performance and efficiency are starting to reach limits imposed by the fundamental properties of silicon itself.

Silicon-based microelectronics have powered the digital revolution, but their performance and efficiency are starting to reach limits imposed by the fundamental properties of silicon itself.

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Chinese analog and mixed-signal chipmaker Novosense Microelectronics has introduced the NSM350x series, a Hall-based magnetic encoder designed for high-precision angular measurement in robot joints and industrial motion-control systems, reports .

Following the federal funding rollout for The Bloch Quantum Tech Hub, the Illinois Quantum and Microelectronics Park (IQMP) has secured its first two physical supply-chain tenants: Edmonton-based dilution refrigerator manufacturer

One of the targets was Gruppa Kremniy EL, a leading Russian microelectronics manufacturer based in Bryansk.

One of the targets was Gruppa Kremniy EL, a leading Russian microelectronics manufacturer based in Bryansk.

One of the targets was Gruppa Kremniy EL, a leading Russian microelectronics manufacturer based in Bryansk.

One of the targets was Gruppa Kremniy EL, a leading Russian microelectronics manufacturer based in Bryansk.

One of the targets was Gruppa Kremniy EL, a leading Russian microelectronics manufacturer based in Bryansk.

A playground for analog microelectronics on TTSKY25a and all future Sky shuttles.

Organic thermoelectric generators hold great promise for powering wearable microelectronics, yet their performance is fundamentally constrained by the trade-off between electrical conductivity (σ) and the Seebeck coefficient (S). Herein, we develop a microfluidic spinning platform to fabricate PEDOT:PSS-based nonwoven fabrics with precisely engineered micro-/nanoscale physical and electronic structures, substantially enhancing thermoelectric performance. The intense shear field and in situ coagulation within microfluidic microchannels, synergized with H2SO4 treatment, promotes axial orientation and coil-to-linear conformational transition of PEDOT chains, achieving multiscale structural ordering for highly efficient charge transport in the resulting fibers. A subsequent controlled NaOH‑mediated dedoping process finely tunes the Fermi level and modulates energy‑dependent scattering, yielding a final σ of 2038 S cm−1 and an S of 29.7 μV K−1. Such integrated modulation enables effective optimization of the classic σ-S trade-off, ultimately yielding a power factor of 179.8 μW m−1 K−2. Furthermore, by integrating the fabric with an electrospun PVDF-HFP radiative-cooling layer, we demonstrate a radiation-modulated fabric device capable of maintaining an in-plane temperature gradient (ΔT ≈ 20 K) under natural sunlight and efficiently harvesting ambient solar-thermal energy. This study provides a versatile route for the fabrication of all-organic, flexible fabrics with high-performance thermoelectric functionality for wearable energy applications.