[en] Indications that structure is enhanced for higher bombarding energies led to the study of the ⁵⁶Fe+⁵⁶Fe reaction at the Oak Ridge HHIRF using the 14.6 MeV/u ⁵⁶Fe beam. Emphasis was placed on obtaining unit mass and charge resolution for all projectile-like products. The total kinetic energy spectra of the cobalt products detected at 3⁰, 5⁰ and 7⁰ are shown. Several structures can be tentatively identified. The most striking feature is a strong peak corresponding to a total kinetic energy loss E/sub loss/=16-18 MeV (excitation energy E* of 12-14 MeV). While very prominent in the 5⁰ and 7⁰ spectra, this peak is not seen at 3⁰ and may be interpreted as a proton transfer channel with an angular distribution characteristic of large angular momentum transfer. A second peak can clearly be identified at E/sub loss/ approx. 50 MeV for theta/sub lab/=5⁰; however, a similar structure appears at E/sub loss/ approx. 45 MeV for 7⁰ and there are indications of something at E/sub loss/ approx. 55 MeV for the 3⁰ data. Evaporation calculations show that this is the region of feeding from the first sequential neutron evaporation of ⁵⁸Co. Several other features are discernable at higher excitation energies which are difficult to understand in the framework of particle evaporation. While the results of the Z=27 energy spectra are encouraging, separation of the 5⁰ data into spectra for individual cobalt isotopes does not greatly enhance the structure. The angular distributions of the four peaks defined by the 7⁰ spectrum are plotted for 20 MeV bins in E/sub loss/. The lowest excitation energy bin, encompassing the E*=15 MeV structure, has an angular distribution which appears to be bell-shaped while the other excitation energy peaks become progressively more forward peaked with increasing excitation energy