We design the resin using three kinds of monomers, butyl acrylate acting as the "spacer", butanediol diacrylate as the "crosslinker", and 2-[(ethylamine)carbonyl]oxy]ethyl acrylate acting as the "sticker". All three monomers are acrylate based small molecules which copolymerize to form an optically transparent network under ultraviolet (UV) triggered free radical polymerization in ambient air as illustrated in Figure . The major component of the resin, butyl acrylate, is a commodity with a price of ~1.3 $/kg , >50 times lower than existing commercial resins that are based primarily on specialty acrylate derivatives (Table ). The sticker is essentially the same as the spacer except with one end carrying an amide group. This not only ensures that the sticker and the spacer have the same reaction rate so that the sticker and the spacer are randomly distributed along the polymer chains, but also allows for the formation of amide-amide double-hydrogen bonding, as illustrated by a pair of closed red circles in the lower part of Figure . The randomly crosslinked network contains two types of crosslinks: (i) UV-initiated permanent, covalent bonds that crosslink two neighboring polymer chains and (ii) hydrogen bonding that act as reversible crosslink, as shown by the upper part of Figure . For this dual-crosslinked network, the stiffness can be tuned by adjusting the concentration of the permanent crosslinkers and the energy dissipation efficiency can be tuned by the concentration of stickers. Thus, our design is expected to enable a modular control over the mechanical properties of the elastomer resin.