We find a simple brane configuration in the IKKT matrix model which resembles the standard model at low energies, with a second Higgs doublet and right-handed neutrinos. The electroweak sector is realized geometrically in terms of two minimal fuzzy ellipsoids, which can be interpreted in terms of four point-branes in the extra dimensions. The electroweak Higgs connects these branes and is an indispensable part of the geometry. Fermionic would-be zero modes arise at the intersections with two larger branes, leading precisely to the correct chiral matter fields at low energy, along with right-handed neutrinos which can acquire a Majorana mass due to a Higgs singlet. The larger branes give rise to SU (3) c , extended by U (1) B and another U (1) which are anomalous at low energies and expected to disappear. At higher energies, mirror fermions and additional fields arise, completing the full N = 4 supersymmetry. The brane configuration is a solution of the model, assuming a suitable effective potential and a non-linear stabilization of the singlet Higgs. The basic results can be carried over to N = 4 SU (N ) super-Yang-Mills on ordinary Minkowski space with sufficiently large N . 1 harold.steinacker@univie.ac.at 2 jochen.zahn@univie.ac.at N = 4 U (N ) SYM, with sufficiently large N . In fact, most of the results apply also to N = 4 SU (N ) super-Yang-Mills on ordinary Minkowski space, with sufficiently large N . The main difference lies in the U (1) sector, which acquires a special role in the matrix model, related to the effective gravity [6,7]; however we largely ignore this issue in the present paper.At first sight, it may seem hopeless to obtain anything resembling the standard model from a maximally supersymmetric gauge theory. However, at low and intermediate energies this can be achieved. We establish certain backgrounds of the matrix model, interpreted as intersecting branes in 6 extra dimensions, which lead to fermionic and bosonic low-energy excitations governed by an effective action which is close to the standard model, with all the correct quantum numbers. This is a very remarkable result, given the non-chiral nature of N = 4 SYM. The price to pay are mirror fermions which arise at higher energies, along with Kaluza-Klein towers of massive fields, which ultimately complete the full N = 4 spectrum. There is indeed no way to obtain the standard model without Higgs: If we switch off the Higgs, some of these mirror modes become (quasi-) massless, and combine with the standard model fermions to form non-chiral multiplets. In that respect the Higgs sector differs from the standard model: It arises from two doublets which are an intrinsic part of two minimal fuzzy spheres. The spontaneous symmetry breaking (SSB) pattern is thus more intricate than in the standard model, but this does not rule out the possibility that its fluctuations realize the physical Higgs. The remarkable point is that the separation into chiral standard-model fields and the mirror sector arises quite naturally on simple geometrical backgro...