The middle/late Paleocene basalts which cover the Late Cretaceous sandstone in the East Gilf Kebir Plateau were sampled for paleomagnetic investigation. The progressive thermal demagnetization revealed that À The hematite component was parallel to the present-day field and the goethite overprint. Its pole is considered as representing recent low-temperature martitization of the magnetite upon exposure to intensive chemical alteration. À The magnetite-anchored component was N-S dual-polarity with shallow equatorial inclinations. Based on its overwhelming existence, this component was considered as the characteristic remanence of the sampled basalt. Its north pole (71.7°N/203.5°E) was considered as representing the geomagnetic field during the eruption of the basalt.The reliability of the East Gilf Kebir basalt (59 ± 1.7 Ma) pole was constrained by its comparison with synchronous poles rotated from the main tectonic units using Euler Pole rotation. This basalt pole places NE Africa, along its present N-S azimuth at a far south tropical paleo-latitude. Cairo [30°N], was at paleo-latitude 11.8°N in middle/late Paleocene (59 Ma), that is about 18°south to its present-day latitude.Comparing the present pole with the Mansouri ring complex (132 ± 10 Ma) Early Cretaceous pole (47°N/259°E) and two poles from the Wadi Natash volcanic field; the alkali basalt (104 ± 7 Ma) Middle Cretaceous pole [55°N/250°E] and the trachyte/Phonolite (86-78 Ma) Late Cretaceous pole [66.5°N/229°E], a Cretaceous-Paleocene segment [132-59 Ma] of the Apparent Polar Wander Path [APWP] of Africa could be traced. These poles can, concurrently, verify the paleo-azimuth and paleo-latitude evolution of the African plate during the Cretaceous and Paleocene. ª 2015 Production and hosting by Elsevier B.V. on behalf