By　modulating　the　emission　characteristics　of　a　twin-correlated　bright　beam　in　a　parametric　amplification　of　the　four-wave　mixing　process,　a　nondestructive　and　lensless　imaging　scheme　to　image　ultra-cold　atoms　or　molecules　is　proposed.　The　optical　lattice　state,　which　is　induced　via　the　coupling　between　ultra-cold　atoms　and　a　standing　wave,　is　used　to　effectively　modulate　the　dressing-suppressed/enhanced　nonlinear　susceptibility,　and　an　emission-intensity-modulated　grating　of　a　correlated　bright　beam　is　formed.　The　intensity　fluctuations　of　the　correlated　bright　beam　are　taken　as　the　imaging　light　to　implement　second-order　coincidence　measurement.　As　an　important　complementary　scheme　to　a　previous　self-imaging　scheme　with　spontaneous　parametric　down-conversion,　our　scheme　has　the　characteristic　of　an　efficient　generation　and　detection　rate.　In　addition,　the　visibility　of　the　imaging　can　be　significantly　improved　by　enhanced　nonlinear　susceptibility.　Our　work　may　offer　a　nondestructive　and　lensless　way　to　image　ultra-cold　atoms　or　molecules.