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This research presents a breakthrough in quantum hardware by demonstrating the first room-temperature on-chip radio-frequency maser using pentacene triplet states, effectively solving previous integration hurdles caused by bulky metallic resonators. The device achieves ultra-low noise and high frequency selectivity while functioning as both a local oscillator and an ultra-sensitive magnetic-field sensor at 106.62 MHz. This advancement establishes a critical pathway toward portable quantum devices with significant implications for weak-signal detection applications in sensing networks.
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On-chip Radio Frequency Maser

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arXiv:2607.21002v1 Announce Type: new Abstract: Room-temperature solid-state masers offer exceptional frequency selectivity and ultra-low noise for weak-signal detection. However, their reliance on bulky metallic resonators has significantly hindered integration, miniaturization, and extension to lower frequencies. Here, we demonstrate the first on-chip radio-frequency maser operating at room temperature, exploiting optically pumped triplet states of pentacene. The device produces stimulated emission at 106.62 MHz and enables ultra-sensitive microwave magnetic-field detection with a sensitivity of ($\sim 10\,\rm{fT/\sqrt{Hz}}$), functioning simultaneously as a local oscillator and a sensor. By actively controlling microwave dissipation, we achieve efficient regulation of the maser output, revealing a key mechanism for tuning emission in open cavity-free systems. This work extends pentacene-based masers into the radio-frequency regime and establishes a highly integrated on-chip architecture for room-temperature masers, offering a new pathway toward portable quantum devices.

Abstract:Room-temperature solid-state masers offer exceptional frequency selectivity and ultra-low noise for weak-signal detection. However, their reliance on bulky metallic resonators has significantly hindered integration, miniaturization, and extension to lower frequencies. Here, we demonstrate the first on-chip radio-frequency maser operating at room temperature, exploiting optically pumped triplet states of pentacene. The device produces stimulated emission at 106.62 MHz and enables ultra-sensitive microwave magnetic-field detection with a sensitivity of ($\sim 10\,\rm{fT/\sqrt{Hz}}$), functioning simultaneously as a local oscillator and a sensor. By actively controlling microwave dissipation, we achieve efficient regulation of the maser output, revealing a key mechanism for tuning emission in open cavity-free systems. This work extends pentacene-based masers into the radio-frequency regime and establishes a highly integrated on-chip architecture for room-temperature masers, offering a new pathway toward portable quantum devices.

arXiv:2607.21002 [quant-ph]

(or arXiv:2607.21002v1 [quant-ph] for this version)

https://doi.org/10.48550/arXiv.2607.21002 Focus to learn more arXiv-issued DOI via DataCite (pending registration)

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