Smart wearable electronic textiles (e-textiles), by continuous monitoring of vital signs and implementing round-the-clock treatment protocols near the patient have revolutionised the personalised healthcare system. To date, the major challenge for adopting and growing etextiles is the lack of compatible power supply units. Textile-based wearable supercapacitors, in this regard, hold immense potential due to their excellent lifetime, fast charge-discharge properties with high-power density as well as possessing the salient features of being thin, lightweight and flexible. However, the low energy density remains a serious obstacle to its further development. The active materials used to prepare the electrodes of supercapacitors have an immense influence on their electrochemical performance; therefore, despite the availability of numerous energy-storage materials, the search for new electrode materials with excellent capacitive performance remains a stimulating area of research. Key requirements for electrode materials include high conductivity, large surface areas or high pseudo-capacitance, and long-term stability, of which are still largely absent. Recently, there has been a significant focus on the advancement of clean and sustainable energy storage and conversion technologies as a response to environmental pollution and the impending energy crisis. Metal-organic frameworks (MOFs) are a novel class of porous, crystalline materials constructed by functional molecular building blocks and characterized by their organic linkers and metal ions or clusters. MOFs are unique structures combining the power of organic and inorganic chemistry to produce porous solids with extremely high surface areas (⁓1000-10,000 m 2 g -1 ) and all imaginable functionalities. They possess several advantages over conventional porous materials including exceptional porosity, customizable structures, and flexible adaptability. MOFs have recently gained extensive explorations as a highly versatile platform for functional applications in many research fields specially in energy-storage applications. MOFs can be directly used as supercapacitor electrodes because the metal ions contained in MOFs have redox activity and can instantly react with electrolyte ions to store energy. However, the poor conductivity of MOFs limits their practical application in the field of energy storage and conversion. More than 20,000 MOFs with varying compositions, crystal structures and morphologies have been reported. Various MOF structures can be synthesized by selecting different organic ligands, resulting in MOF materials with high porosity, high specific surface area and abundant active sites. MOF materials exhibit a rich framework structure, in which pore size and pore area can be modulated by controlling the proportion of metal salts, organic ligands, solvents, and even some additives. Therefore, MOFs including their composites and derived materials, have received significant interest from the scientific community in recent years for energy storage applications. The current literature has reported on different types of MOF-based SCs, however, mostly combined with polymer fibres. The use of standalone MOFs as electrode materials has been limited due to their poor electrical conductivity. At present, the application of MOFs in the supercapacitor field is only at the initial stage in the laboratory. With the deepening of research on the design, synthesis and function enhancement of MOFs, it is believed that green, low-cost and mass excellent MOFs-based energy storage and conversion devices can be commercialized in the near future. There has been very limited literature, highlighting the applications of MOF with other functional materials as textile-based supercapacitors. Liang et al. anchored CoNi-MOF nanorods on carbon cloth to prepare CoNiOOH-2 electrode. The supercapacitor showed an ultrahigh area-specific capacitance of 11.6 Fcm -2 at 2 mAcm -2 . Qi et al. constructed an MOF/polypyrrole hybrid by a facile one-pot electrodeposition method to fabricate an all-solidstate fabric supercapacitor. The hybrid supercapacitor achieved a specific capacitance of 10 mF cm -1 (206 mF cm -2 ), a power density of 132 μW cm -1 (2102 μW cm -2 ), and an energy density of 0.8 μWh cm -1 (12.8 μWh cm -2 ). Cheng et al. reported a flexible fabric electrode, constructed with a sphere-flake-sphere structure formed by a nick-metal-framework (Ni-MOF) and reduced graphene oxide (RGO). The all-solid-state asymmetric fabric supercapacitor based on this hybrid and PPy fabric electrode achieved an areal capacitance of 95 mF cm -2 , a power density of 3.07 mW cm , and an energy density of 7.72 μWh cm -2 . However, there remains a need for a systematic protocol for the applications of MOF in wearable e-textile fabrications.