  A technique for the design of conformal metasurfaces with two spatially
disconnected space wave ports connected by a surface wave is presented. The
passive and lossless metasurface absorbs the incident plane wave at port 1,
converts it perfectly into a surface wave which transports the energy along an
arbitrarily shaped/curved metasurface to port 2, then reradiates the captured
power as a radiated field with control over its amplitude and phase. Since the
incident field is seen to disappear at the input port and reappear at a
spatially dislocated port as a new formed beam, the field can be said to have
teleported. The metasurface consists of a single, conformal, spatially variant,
impedance sheet supported by a conformal grounded dielectric substrate of the
same shape. It is modeled using integral equations. The impedances of the sheet
are optimized using the adjoint variable method to achieve the perfect
teleporting operation from a passive and lossless metasurface. Possible
applications include channel optimization for cellular networks, inexpensive
power harvesting, sensing, around-the-corner radar, and cloaking.
