be applied with light-sensitive compounds or biological agents that are not resistant to UV illumination.Soft-lithography [5] and in particular microcontact printing (µCP), [6] was acknowledged as a great innovation in the field of microelectronics for surface chemical functionalization and patterning of a wide range of materials with satisfactory spatial resolutions. [7,8] Soft-lithography uses a master to mold a soft polymer. In particular, in µCP a soft polymer stamp, like polydimethylsiloxane (PDMS) or some other polymers, [9] is usually employed and "inked" with a desired molecule which is then transferred onto a substrate by contact. The relief of the elastomeric stamp, usually in the micrometric-scale, is replicated over the substrate. PDMS is a soft polymer, which allows for a conformal contact between the stamp and the surface to be functionalized. Generally, a good replica between the mold pattern and the printed one is obtained. [5,10,11] However, the elastomeric nature of the polymer stamp can also cause some deformation in the pattern relief due to contact pressure. Few failure events can occur depending on the dimensional ratio of some features to be printed, as for example collapse, buckling, or sagging of the reliefs. [12] Worth noting, a PDMS stamp can last more than 100 prints over a period of several months without noticeable degradation. [4] Moreover, in case of patterning of biomolecules, a complete transfer of ink from the stamp to the substrate was observed within a few seconds of contact time. [13] The surface patterning by microcontact printing prevents the use of toxic and aggressive chemicals onto the bioactive surface to be patterned, since PDMS is biocompatible. Good control over surface wettability patterning, [14] printing localization, [15] and the deposition of bioactive molecules, [16] DNA, [17,18] cells, [4] and proteins [19,20] have been demonstrated. Patterning of bacteria [21] or neurons [22] has also been reported by microcontact printing of antibody and proteins, respectively.In this biotechnology framework, the possibility to pattern a surface with a customizable shape in the range of few micrometers down to hundreds of nanometer over millimeter size region is of great interest. For example, nanopatterned surfaces can provide better cell-material interaction for cell engineering, and they can also be differentiated by additive technology. [23] Moreover, in microfluidic bioassays, the sensitivity of the test relies on the biofunctionalization and the possibility to miniaturize the patterned area with various biomarkers within a single device. [24] Patterning by soft lithography replica molding was reported on photoinduced surface-relief-gratings A versatile and easily customizable mold platform for the microcontact printing of 1D and 2D patterns of dyes is developed. The mold is obtained by optical-saturable lithography, which is optimized to give a fast process on millimeter size areas. Supported by a kinetic and an electro-magnetic model, 1D and 2D patterns are designed a...