The phrase "adhesive at the interface" is correct and usable in written English.
It can be used in contexts related to materials science, engineering, or any discussion involving bonding or adhesion between two surfaces.
Example: "The effectiveness of the adhesive at the interface determines the overall strength of the joint."
Alternatives: "bonding at the junction" or "adhesion at the boundary".
Three possible failure modes are considered in this study: cohesive in the concrete substrate, mixed, and adhesive at the interface.
The patterns were classified as adhesive (at the interface between tooth/restoration), cohesive in dentin (exclusively at the dentin substrate), cohesive in composite resin (exclusively at the restoration), or mixed (when the failure occurred at the adhesive interface and at least one more pattern).
However, many investigations have reported that the mode of failure occurring after shear bond testing is often cohesive within the substrate or bonded composite rather than adhesive at the interface [ 31, 32].
These nano size porous surface structure by anodizing allows the adhesive to fill the cavities and form new adhesive surface at the interface as this bi-material specimen was co-cured in the autoclave.
In all cases, we observed adhesive failure at the interface between the P3HT PCBM with PEDOT PSS layer.
The large interfacial electric double layer capacitance (9.5 ± 0.3 mF cm−2) of the PEDOT adhesive layer at the interface of the layered composite was found to stabilize the electrode potential against external noises, and decrease the electric impedance at the frequency of 5 500 Hz, which is the typical range of electromyographic signals.
The systems were, then, subjected to shear stress (without loading monitoring) for the removal of the dolly, and the cross-sections of the specimens were observed for failure mode analysis (cohesive failure in FBE coating, adhesive failure at the interface steel/FBE coating, and cohesive failure in metal substrate).
XPS survey scans and relevant high resolution core levels were recorded on both sides of the interface to identify and understand relevant interfacial bonding as well as to distinguish between adhesive failure at the interface and cohesive failure in the polyimide substrate.
The properties of the TBCs sprayed by laminar plasma jet process, such as the adhesive strength at the interface of the ceramic coating/bond coat, the surface roughness and microstructure, are examined by tensile tests and scanning electron microscope (SEM) observations.
The fracture toughness increased with the bonding temperature until 220 °C, and then decreased at higher bonding temperatures, which could be explained by the progressive occurrence of two different failure mechanisms, first adhesive failure at the interface and later cohesive failure between chains.
The enlarged plaque end of the byssal thread is the structure holding all the adhesive proteins at the interface of the byssal thread and substrata surface.
