A piezoelectric-driven glass capillary launcher enables localized, high-efficiency (up to 93%) in-vacuum loading of silica spheres, nanodiamonds, and plate-like particles into single-beam, dual-beam, and standing-wave optical traps.
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Room-temperature on-chip magnetic levitation of a ferromagnetic microsphere with librational eigenfrequencies above 10 kHz.
A fabrication process for Au and Au/graphene platelets achieving 30% yield and intact bilayers for levitation experiments.
The paper computes the graviton-scalar Compton scattering cross section via EFT at ~30 PeV center-of-mass energy and derives an impact parameter that, after coherence enhancement, scales with the known LIGO GW strain and mirror recoil.
citing papers explorer
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Localized efficient in-vacuum loading of $\sim$0.1-10 $\mu$m spherical and plate-like particles into optical traps using a pulled glass capillary
A piezoelectric-driven glass capillary launcher enables localized, high-efficiency (up to 93%) in-vacuum loading of silica spheres, nanodiamonds, and plate-like particles into single-beam, dual-beam, and standing-wave optical traps.
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On-chip levitation of ferromagnetic microparticles
Room-temperature on-chip magnetic levitation of a ferromagnetic microsphere with librational eigenfrequencies above 10 kHz.
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Microfabricated Au and Au/graphene bilayer platelets for levitation experiments
A fabrication process for Au and Au/graphene platelets achieving 30% yield and intact bilayers for levitation experiments.
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Effective Field Theory Calculation of LIGO-like Compton Scattering
The paper computes the graviton-scalar Compton scattering cross section via EFT at ~30 PeV center-of-mass energy and derives an impact parameter that, after coherence enhancement, scales with the known LIGO GW strain and mirror recoil.