The properties of pyrazole-based systems have been widely investigated due to their chelating ability with metallic ions as terminal ligands, bridging ligands and precursors for the design of several multi-nitrogen ligands for coordination, bioinorganic and organometallic chemistry , in order to build up new coordination polymeric networks and metal-organic frameworks. Additionally, they are well known for their spin-crossover behavior and their biological and medicinal properties as analgesic, anti-inflammatory agents , etc. As a contribution to what has been previously reported, we will be describing herein, for the first time, the magnetic properties and antimicrobial activity of a pyrazole-based copper complex . Furthermore, the Hirshfeld surfaces and the 2D-figerprint graphics  allowing the understanding of the properties and the occurrence of each intermolecular contact around the studied complex molecules will be discussed exclusively in detail.
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