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February 14, 2026Nature Communications3 citationsOpen Access

Unconventional spin-intertwined charge density wave in magnetic phases of kagome metal GdTi3Bi4

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XHXianghe HanHCHui ChenZCZhongyi Cao

Key Points

  • To explore the unconventional spin-intertwined charge density wave in GdTi3Bi4 and its implications in quantum materials.
  • Utilized scanning tunneling spectroscopy to analyze charge density wave characteristics.
  • Studied transitions in charge density wave under varying magnetic fields and temperatures.
  • Investigated symmetry-breaking properties and incommensurate characteristics of the charge density wave.
  • Identified a 3Q charge density wave that is incommensurate with the crystalline lattice.
  • Observed incommensurate-commensurate transitions in a magnetic field.
  • Demonstrated a close resemblance between the phase structure of charge density wave and the magnetization phase diagram of GdTi3Bi4.

Abstract

The symmetry breaking density waves and their interplay with spin and charge are crucial for understanding the correlated electronic states in quantum materials. However, symmetry-breaking density waves involving simultaneous charge and spin modulations remain largely unexplored. Here, we report the unconventional spin-intertwined charge density wave in magnetic kagome metal GdTi 3 Bi 4 by scanning tunneling spectroscopy. We observe a 3Q charge density wave that is incommensurate with the crystalline lattice in both periodicity and orientation and breaks all mirror and rotation symmetries. The CDW undergoes incommensurate-commensurate transitions in a magnetic field and 3Q-1Q transitions as a function of applied magnetic field and temperature. Remarkably, the quantum and thermal melting of the CDW exhibits a phase structure closely resembling the bulk magnetization phase diagram of GdTi 3 Bi 4 , which provides evidence for the observation and manipulation of spin-intertwined CDW as a bulk property. Our findings reveal the microscopic textures of the intricate magnetic phases with unconventional charge-spin coupling, and offer insights into a broad class of multi-components density wave formation in kagome and other correlated quantum materials.

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Cite This Study

Han et al. (2026) studied this question.

synapsesocial.com/papers/698fd276306598e8538de95dhttps://doi.org/10.1038/s41467-026-69544-4
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