Viscosifying surfactants plug fractures while wettability-altering agents enable water soaking, resolving low matrix extraction efficiency.
A lubricating additive composition comprising estolide polyol ester, fatty acid salt, and surfactant reduces frictional forces in aqueous media.
Water-soluble polyvinyl alcohol pellets temporarily block high-permeability zones, then dissolve to eliminate removal effort.
Date tree leaflet flakes seal borehole fractures to control fluid loss while eliminating environmental harm from synthetic lost circulation materials.
Linker-mediated coating prevents nanoparticle aggregation in high-temperature subterranean formations to enhance hydrocarbon recovery.
Acid precursor generates delayed acid to protonate surfactants, breaking water-in-oil filter cakes without damaging the wellbore formation.
A bionic dual-phobic drilling fluid system stabilizes borehole walls using composite additives and biopolymers.
Premixing a stabilizer with latex prevents coagulation in saltwater cement slurries, preserving compressive strength and sealing performance.
Anionic surfactants solubilize hydrophobically modified polymers to prevent precipitation under high pH and temperature conditions.
A set-delayed cement composition uses pumice, hydrated lime, and a chemical activator to form a hardened mass.
Reducing brine ionic strength extends gelation time, enabling deep formation penetration without compromising final gel strength.
Encapsulated metal-complexing agent prevents premature dissolution, preserving polymer friction reduction during shale formation injection.
Compacted polyvinyl alcohol copolymer particles temporarily plug high permeability zones to redirect drive fluids into lower permeability regions.
A gelled treatment fluid blocks water in high permeability streaks using a crosslinked polymer network.