## 1 Introduction  
Nowadays, the plastic fiber technology remains one of the challenging solutions for small office/home office network deployments as compared to the glass fiber technology. In fact, polymer fibers are less brittle and more flexible than glass and should reasonably restrict their use to home/office applications where their easy handling should aid the _\"Do It Yourself concept\"_ (DIY). Of the commercially available plastic fibers, PolyMethylMethAcrylate (PMMA) and perfluorinated graded index polymer optical fibers (POF) represent the two mains candidates able to be used for high speed/medium range home/office network, due to their bandwidth, as compared to the step index, capabilities. While the graded index POF based on PMMA material are restricted to telecommunication systems in the visible range due to the high fiber attenuation of the PMMA within the infrared (IR) spectra, perfluorinated graded index plastic optical fiber (PFGI-POF) seems to be a prime candidate to be used with high speed (>1 Gbps) and commercial off the shelf infrared transceivers. The PFGI-POF exhibits high bandwidth capacities within the IR spectra and in particular both at 850 nm and 1,300 nm. The concept of multi-services distribution developed here for the PFGI-POF originates from the combined use of high bandwidth fiber and Coarse Wavelength Division Multiplexing (CWDM) technique in order to fully exploit the PFGI-POF bandwidth capacities. The study reported here has the advantage to multiplex several services on the same PFGI-POF. According to the high bandwidth length products of the plastic fibers both at 850 nm and 1,300 nm, the idea is to extend the classical baseband existing network to a dual concept providing the indoor coverage of wireless signals transmitted using the Radio over Fiber technology. This concept is very useful when the two transmitted signals exhibit potential overlapped spectrum. The simultaneous transmission of a 10 GbE signal and a wireless signal is done respectively at 850 nm and 1,300 nm on a single plastic fiber with wavelength division multiplexing commercially available devices. Some experiments aiming to demonstrate the simultaneous transmission of different signals have been reported using either electrical or optical multiplexing schemes. For example, electrical multiplexing has been used by [PERSON] _et al._[1] to demonstrate the dual transmission of a baseband signal at 9.95328 Gbps and a 60 GHz wireless radio signal handling a 155 Mbps data signal. The optical transmission was carried out on a dispersion shifted single-mode glass fiber at a single wavelength (1,550 nm) using external modulation scheme and both electrical and optical filters which increase the link cost. More recently, [PERSON] _et al._[2] have reported the simultaneous baseband (2.5 Gbps NRZ data stream) and radio signals (sub-carrier multiplexed cable television CATV) transmission over glass multimode fiber (length: 5 km). The dual transmission is performed using wavelength multiplexing around 1,550 nm. Highly stabilized laser sources, as well as external modulation, were used which also lead to an expensive infrastructure for home or office networks compared to a solution using the direct modulation of uncooled laser. [PERSON] _et al._ have already reported the concept of multi-services distribution over the OM4 glass multimode fiber [3,4]. The improvement of the indoor coverage of wireless communications signals in shadowed area (radiocellular (Global System for Mobile communications (GSM), Digital Cellular System (DCS), Enhanced Data rates for GSM Evolution (EDGE), Universal Mobile Telecommunication System (UMTS)), WLAN (IEEE802.11a, b, g, _etc._) and WPAN (Bluetooth, Zigbee, UWB, standards, _etc._) using carrier frequencies up to buildings, tunnels or shopping centers is realized with the Radio over Fiber (RoF) technology.