Urine　with　its　abundant　macronutrients　(N-P-K)　is　an　ideal　resource　for　the　production　of　fertiliser.　However,　the　odor　and　pathogens　in　the　raw　urine　must　be　removed　to　meet　the　public　acceptance　of　urine　collection　systems　and　to　enable　its　safe　reuse　as　a　fertiliser.　In　this　work,　real　urine　was　collected　and　treated　through　a　pilot-scale　gravity-driven　membrane　bioreactor　(GDMBR)　to　remove　the　malodorous　organics　and　to　nitrify　almost　50%　of　the　ammonia　into　nitrate.　The　stablised　urine　was　subsequently　distilled　via　low-cost　heat　localized　solar　evaporation　(HLSE)　to　produce　a　non-odorous　solid　fertiliser.　The　developed　HLSE　with　a　small　footprint　can　attract　bulk　solution　into　a　vertical　insulated　space　and　quickly　heat　it　up　to　68　degrees　C　within　1　h.　The　HLSE　process　had　vapour　flux　at　1.3　kg　m-　2　h-1　as　well　as　high　solar　to　vapour　conversion　efficiency　at　87%.　Based　on　the　EDX　mapping　and　XRD　analysis,　the　generated　crystals　are　mainly　NaNO3,　NH4Cl,　NaCl,　NH4H2PO4　and　K2HPO4,　which　are　ideal　nutrients　for　vegetation.　In　this　study,　the　produced　urine-derived　fertilisers　have　a　better　performance　on　the　growth　of　the　leafy　basil　than　the　all-purpose　commercial　fertilisers.　Generally,　the　GDMBRHLSE　is　a　promising　cost-effective　and　green　technology　for　nutrients　recovery　from　urine.