Magnetic Skyrmions in non-centrosymmetric magnets are topologically stable particle-like objects with remarkable properties that include ultra-low current driven motion, multiferroic coupling and emergent electrodynamics. Recently, the ferroelectric lacunar spinel compound GaV4S8 was found to be a unique host of a new Néel-type Skyrmion lattice (SkL) phase describable as a superposition of spin cycloids. This SkL lies in contrast to the commonly observed Bloch-type SkL in chiral magnets like MnSi described in terms of spin helices. Here we request to use to SANS to prove the existence of Néel-type SkL in the isostructural sister compound GaV4Se8. Startlingly, our magnetization data imply that the SkL is stable down to T=0; this would make GaV4Se8 unique among all bulk skyrmion host materials where the SkL is only realized for finite T always > ~Tc/2. Using SANS to prove microscopically that the SkL is a finite field ground state in GaV4Se8 will contribute important information to the intense debate concerning the mechanisms for bulk SkL stability based on both thermal fluctuations and/or magnetic anisotropy.