In summary, this study demonstrates a facile strategy to design and fabricate MOF-based wearable e-textiles for all-solid-state fabric supercapacitors. With a standalone MOF, we fabricated e-textiles via exploitation of screen print, pad-dry coating and inkjet print technology. The flexibility and washability of the fabricated e-textiles were demonstrated. The as-fabricated e-textile was then utilized as a supercapacitor electrode. Cyclic voltammetry (CV), galvanostatic charge-discharge (GCD) and electrochemical impedance spectroscopy (EIS) tests were carried out to characterize the supercapacitors. The high areal capacitance of ~221.51 mF cm -2 , ~359.4 mF cm -2 and ~353.5 mF cm -2 were achieved for screen print, paddry coating and inkjet printing technology respectively at a scan rate of 1 mVs -1 . The energy densities were as high as ~123.06 µWh cm -2 (screen print), ~199.66 µWh cm -2 (coating) and ~196.39 µWh cm -2 (inkjet print) and power densities were as high as ~55 377.5 µW cm -2 (screen print) ~55 291.54 µW cm -2 (coating) ~54 385.38 µW cm -2 (inkjet print). The supercapacitors also showed outstanding capacitance retention (⁓97.4-97.9%) after 1000 cycles. Compared with the literature already reported for MOF-based textile supercapacitors, our results stand out in terms of energy storage performance, which will surely reveal a new pathway for MOF-based energy storage textiles.