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Portable double-sided pulsed laser heating system for time-resolved geoscience and materials science applications.

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A new portable pulsed laser heating system for diamond anvil cells offers precise, time-resolved temperature measurements up to 100 kHz. This advanced system enhances high-pressure, high-temperature research, particularly at synchrotron facilities.

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Area of Science:

  • Geophysics and planetary science
  • Materials science
  • Spectroscopy

Background:

  • Diamond anvil cells (DACs) are crucial for simulating extreme pressures and temperatures.
  • Accurate in situ temperature measurements are vital for understanding material behavior under these conditions.
  • Pulsed laser heating offers rapid heating capabilities but requires precise control and diagnostics.

Purpose of the Study:

  • To develop a portable, double-sided pulsed laser heating system for diamond anvil cells.
  • To enable stable, high-repetition rate pulsed laser heating.
  • To implement in situ, time-resolved, and space-resolved temperature determination.

Main Methods:

  • Developed a portable double-sided pulsed laser heating system for DACs.
  • Achieved stable laser pulses (microseconds) with high repetition frequencies (up to 100 kHz).
  • Utilized Planck radiation function fitting (650-850 nm) for temperature determination.
  • Employed a gated detector for time-resolved measurements and multi-point collection for spatial resolution.

Main Results:

  • Demonstrated stable pulsed laser heating with microsecond pulse durations and 100 kHz repetition rates.
  • Successfully implemented in situ temperature determination via thermal radiation spectrum analysis.
  • Achieved time-resolved and space-resolved temperature measurements.
  • Showcased system compatibility with synchrotron facilities for advanced experiments.

Conclusions:

  • The developed pulsed laser heating system provides a versatile and accurate tool for high-pressure, high-temperature research.
  • The system's capabilities are particularly beneficial for synchrotron-based experiments like nuclear resonance spectroscopy.
  • Applications include studying the behavior of materials such as iron oxides under extreme conditions.