  New SAPHIR p(gamma,K+)Lambda total cross section data show a resonance
structure at a total c.m. energy around 1900 MeV. We investigate this feature
with an isobar model and find that the structure can be well explained by
including a new D_{13} resonance at 1895 MeV. Such a state has been predicted
by a relativistic quark model at 1960 MeV with significant gamma-N and K-Lambda
branching ratios. We demonstrate how the measurement of the photon asymmetry
can be used to further study this resonance. In addition, verification of the
predicted large decay widths into the eta-N and eta'-N channels would allow
distinguishing between other nearby D_{13} states.
