Akintunde, IBLindsay, EEOlakanmi, EOPrasad, RVSBotes, APityana, Sisa LSkhosane, Besabakhe S2026-02-202026-02-202025-120268-37681433-3015https://doi.org/10.1007/s00170-025-17284-yhttp://hdl.handle.net/10204/14693The presence of quartz (1100-HV0.05) hardness in coal seams results in premature failure of conical picks in the continuous miner (CM) cutter during underground coal mining. This requires that picks are remanufactured with materials that have improved wear resistance, which can withstand quartz. Processability of two laser-cladded hybrid-carbide (WC-SiC and TiC-SiC) reinforced AISI-4340 composite coatings was studied to identify an appropriate material for remanufacturing worn picks with particular attention paid to their microstructural evolution, performance, and costs. WC-SiC reinforced composites were characterised with defective fusion, cracks, and serrations within the clad microstructure, while the morphologies of TiC-SiC reinforced coatings revealed minimal porosity and cracks without serrations. Furthermore, the microhardness of TiC-SiC coatings is between 1102 and 2753 HV0.5, compared to WC-SiC coatings with a microhardness range between 1066 and 1365 HV0.5. Higher microhardness values of TiC-SiC coatings are attributed to the larger TiC particles retained, compared with the minimal quantity of WC retained particles that settled at the bottom of the coatings. In addition, TiC-SiC coatings have improved wear resistance with a volume loss of 33 mm3 as compared to 71 mm3 for WC-SiC coatings. Comparative analysis of the performance and cost indices of hybrid composites with those of TiC-AISI 4340 and WC-AISI 4340 composites suggests that the hybrid TiC-SiC reinforced AISI-4340 composite performs best at a lower cost. Hybrid TiC-SiC reinforced AISI-4340 composite is hereby recommended as a cheaper remanufacturing material for restoring damaged CM’s picks to as new in performance or reinforcing newly purchased picks to prolong their service life during coal mining.AbstractenHybrid-carbide compositesLaser energy-powder interactionMicrostructuresMicrohardnessWear rateProcess mappingArticlen/a