Combined high-pressure transport, synchrotron XRD, Hall measurements, and theoretical calculations.

Revealed how pressure-enhanced interlayer and spin–orbit coupling optimize Ising superconductivity and suppress competing CDW orders.

Pressure-controlled tuning of interlayer coupling in non-centrosymmetric van der Waals heterostructures.

Discovered an unprecedented double superconducting dome driven by competing interlayer-coupled CDW and superconducting states.

Megabar-pressure superconductivity measurements combined with first-principles electron–phonon calculations.

Achieved record-high Tc in transition metals and identified pressure-enhanced electron–phonon coupling as the origin of robust superconductivity.

High-pressure structural characterization combined with ab initio simulations of local atomic motifs.

Demonstrated that high-density amorphous phases and metavalent bonding induce superconductivity in disordered materials.

In situ high-pressure/low-temperature XRD and XAS across wide pressure–temperature conditions.

Clarified how structural distortion and Ni–O orbital hybridization govern superconducting states in trilayer nickelates.

Developed high-pressure single-crystal angle-resolved polarization SHG measurements combined with synchrotron XRD and Raman spectroscopy.

Revealed that octahedral distortion and bandgap closing synergistically enhance nonlinear optical response under pressure.

Pressure-tuned organic–inorganic coupling combined with structural and optical characterization.

Demonstrated that strengthened hydrogen bonding and framework distortion dramatically amplify SHG intensity in hybrid perovskites.

High-pressure photocurrent dynamics measurements in ferroelectric single crystals.

Revealed pressure-controlled ferroelectric domain relaxation and ultralow-pressure tuning of photoelectric switching behavior.

Combined high-pressure structural, electronic, and photocurrent investigations.

Demonstrated that pressure-induced charge transfer simultaneously optimizes polarization and bandgap in multiferroic photovoltaics.

In situ high-pressure synchrotron XRD, Raman spectroscopy, and first-principles calculations.

Achieved simultaneous enhancement of ferroelectric polarization and visible-light photocurrent via pressure-induced phase transition.

Pressure-treatment-induced symmetry engineering combined with PL spectroscopy.

Revealed that symmetry breaking and orbital hybridization activate strong multiband photoluminescence in pyrochlore systems.

In situ high-pressure photoluminescence and structural evolution measurements.

Demonstrated that lattice distortion and bandgap reversal trigger abnormal visible-light photoluminescence enhancement.

Time-resolved PL spectroscopy under combined laser illumination and quasi-hydrostatic pressure.

Revealed that mild pressure effectively suppresses light-induced phase separation in mixed-halide perovskites.

Quasi-hydrostatic high-pressure–temperature synthesis with structural characterization via CDI-enabled nanoscale imaging.

Achieved bulk highly ordered hexagonal diamond and elucidated atomic-scale intergrowths and bond optimization in extreme P–T conditions.

In situ 3D Bragg coherent diffraction imaging to map morphology and strain evolution at nanoscale under high pressure.

Revealed real-time lattice distortion and twinning in single nanocrystals, providing insights into stress-driven nanoscale deformation mechanisms.

Nanocrystalline diamond anvils expand energy range and remove glitches in EXAFS measurements under high pressure.

Enabled precise structural determination beyond first coordination shells, crucial for amorphous and poorly crystalline systems.

Design of specialized diamond anvils extending high-pressure XAS measurements to ~4000 eV.

Overcome traditional mid-low energy limitations of high-pressure X-ray absorption spectroscopy.

Laser-driven shock combined with fast XRD and machine-learning-assisted molecular dynamics simulations.

Revealed transient dense supercooled liquid formation and complex phase transitions in coesite under shock.

Megabar-range laser shock compression with Hugoniot and temperature measurements.

Provided unique insights into extreme-pressure silica properties, superheating effects, and implications for early planetary interiors.