❤️🕯

LOVE
LOVE
LOVE

🙏🏻

Me too praying, I feel you, but I don’t understand.
Connecting is full of Love.
I saw a star or something, up above when I woke up, it was dancing.
LOVE

Schematic drawing of the elongated laser plasma of a Gaussian beam in side view, roughly indicating the direction of mechanical forces leading to cavity formation within the corneal lamellae (A). To improve cutting precision, it would be ideal to have a disk-like plasma orientated parallel to the corneal surface along the cutting direction and the cleavage lines given by corneal lamellae (B). This feature can be approximated by introducing a spiral phase mask with 2π phase shift (C) into the beam path that converts the linear polarized Gaussian beam exiting the laser into a vortex beam with helical phase (D). The foci of the Gaussian and vortex beam are presented in (E), with the vortex beam focus shown in the top view. It has a ring shape, with the same length in the axial direction as the focus of the Gaussian beam, but with a diameter two times larger. 22

4: Dipole in an electric field (a) Sketch of an electric dipole p s composed of two charges of opposite signs +q and −q in an electric field E(r, t). (b) Electric field lines (dashed lines) and equipotential lines (solid lines) of the electrostatic potential due to an electric dipole.

Cavity quantum electrodynamics (CQED) focuses on understanding the interactions between matter and the electromagnetic field in cavities at the quantum level1,2. In the past years, CQED has attracted attention3,4,5,6,7,8,9 especially owing to its importance for the field of quantum information10. At present, photons are the best carriers of quantum information between physically separated sites11,12 and quantum-information processing using stationary qubits10 is most promising, with the furthest advances having been made with trapped ions13,14,15.