Compliant　sensors　have　drawn　considerable　interests　in　human-robot　interactions.　However,　it　is　still　challenging　to　obtain　reliable　and　reproducible　performance　at　reduced　costs,　especially　for　scaled-up　sensing　applications.　This　work　investigates　the　piezoresistive　performance　of　a　low-cost,　scalable　sensor,　which　is　made　by　spray　coating　exfoliated　graphite　natural　rubber　latex　composites　(EG/latex)　over　an　elastomeric　substrate.　The　EG/latex　sensor　provides　a　uniform　distribution　in　the　sheet　resistance　(variation　below　4%)　over　a　large　10　cm　x　10　cm　area.　The　stabilized　piezoresistive　response　under　cyclic　tests　is　found　highly　related　to　both　the　filler　concentration　and　the　strain　region.　The　8　wt%　and　the　10　wt%　sensors　show　nonlinear　piezoresistive　response,　while　the　25　wt%　sensor　exhibits　the　best　linearity　with　a　high　gauge　factor　(7.6)　and　the　lowest　hysteresis　(0.043)　under　a　maximum　strain　of　60%.　The　distinct　piezoresistive　behavior　is　found　attributed　to　the　different　levels　of　microbreakage　under　the　applied　strain.　Scalable　sensing　performance　is　demonstrated　on　a　hand-size　glove　spray-coated　with　25　wt%　EG/latex.　Effective　localization　of　contacts　over　the　continuous　sensing　glove　is　achieved　via　the　technique　of　electrical　impedance　tomography,　validating　the　potential　of　the　cost-competitive　EG/latex　sensor　for　scalable　sensing　applications.