In order to obtain a fully solution-based explosive ink that was compatible with inkjet printing technology and stably detonated at the microscale， an energetic ink was designed by exploiting 3，4-dinitrofurazanfuroxan （DNTF） as the main explosive and polydimethylsiloxane （PDMS）/nitrocellulose （NC） as the composite binder. The rheological properties and printability of energetic inks were explored by viscometer， electron densitometer， and high-speed photographic instrument. The microscopic morphology， mechanical properties， and safety performance of inkjet-deposited samples were characterized using scanning electron microscopy， nanoindenter， and BAM impact sensitivity tester. The results show that the DNTF-based energetic ink is compatible with inkjet printing technology. The composite bonding system could bind the explosive particles tightly. The maximum elastic modulus of DNTF-based composites reaches up to 6.438 GPa； Compared with the raw DNTF， the impact sensitivity and friction sensitivity of DNTF-based composites increase by 6.5 J and 24 N， respectively. In the groove with 100 mm length， 1 mm width， and 1 mm depth， the detonation velocity of sample reaches 7927 m·s^-1.