Código de referencia del Programa: CSD2006-00044. Web: Sample080212080311080506 Total.

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Código de referencia del Programa: CSD Web: Sample Total suspended solids (mg/L) Turbidity (NTU) Conductivity ( Scm -1 ) pH Alcalinity (mg/L CaCO3) COD (mg/L) BOD 5 (mg/L) TOC (mg/L) TABLE 1. Wastewater samples before ozonation PHPsCo (ngL -1 )(%) removed at different times (sec) CAFFEINE (stimulant) U U U CIPROFLOXACIN ( antibiotic) U U >95 U >95 CLOFIBRIC ACID (lipid regulador) U NICOTINE (alkaloid) U >95 U >95 SULFAMETHOXAZOLE (antobiotic) U >95 U >95 AZYTHROMYCIN (antibiotic) U >95 COTININE (nicotine methabolic by-product) U LORATIDINE (antihistamina) U >95 SALICILIC ACID (analgesic) U TABLE 2 Initial concentration (Co) and removal rates of PHPs from STP wasteewater samples PCPsCo (ngL -1 )(%) remove at different times (sec) BENZOPHENONE (UV-A,B filter) U U ETHYLHEXYL METHOXYCINNAMATE (UV-A,B filter) U GALAXOLIDE (synthetic fragante) U U TONALIDE (synthetic fragante) U U TRICLOSAN (antiseptic) U >95 U MUSK XILENE (synthetic fragante) U >95 TABLE 3 Initial concentration (Co) and removal rates of PCPs from STP wastewater samples Fig. 1 TOC removed rate at different ozonation times for runs corresponding to ( ) , ( ) , ( ) wastewater samples Ozone-based reclamation of an STP effluent: Ozone Doses A. Rodríguez*, R. Rosal J.A. Perdigón-Melón*, Alice Petre*,P. Letón*, M. J. Gomez**, E. García- Calvo* and A.R. Fernandez-Alba** *Department of Chemical Engineering, University of Alcala, Alcala de Henares, Spain. **Department of Analytical Chemistry, University of Almerıa, Almerıa, Spain The system ozone and hydrogen peroxide was used to reclaim wastewater from the secondary clarifier from a Sewage Treatment Plant (STP) of Alcalá de Henares (Madrid- Spain). The assays were performed by bubbling a gas mixture of oxygen and ozone, with ~ 24 g Nm -3 of ozone concentration, through a volume of wastewater samples for 20 minutes at 25 ºC.The removal of dissolved micropollutants such as Pharmaceutical and Personal Care Products (PPCPs) and Organic Carbon (TOC) was enhanced by adding periodic pulses of hydrogen peroxide while keeping pH above 8.0 throughout the runs. Analysis Results Tables 2 and 3 show the elimination rates of 15 micropolutants studied. Nine of them are removed at rates equal or higher to 80 % at 15 min of ozonation. Nicotine is eliminated at rate higher than 95 % at 20 min of ozonation but this product is not mineralized because a methabolic by-product such as Cotinine remains in the wastewater throughout the run Table 1 shows the main parameters of three wastewater samples related to three different data of 2008.The results of BOD5 with non-filtered samples led to COD/BOD5 values in the range 8 -16, indicating a low biodegradability whose origin could be attributed to the load of industrial wastewater received by the STP. Introduction Conclusions The extent of TOC elimination is in 30 % - 60 % range for 20 minutes of ozonation, as Figure 1 shows The ozonation treatment of the effluent from the secondary clarifier of a STP was carried out by the simultaneous use of ozone and hydrogen peroxide with the aim to optimize the reclaiming wastewater technologies based on ozone. In this connection, the TOD at 5min, 15 min and 20 min were around 18 mgO 3 /L, 56 mgO 3 /L and 75 mgO 3 /L for the three wastewater samples, respectively and the mg O 3 consumed/ng micropollutants removed ratios were 0.24, 0.63 and 0.83 at the same ozonation times. After 5 min there are no important changes in the removal rates of most refractory micropollutants to ozonation and the removal rates changes observed for the others must be assesed in order to optimize the process. Although the challenges of this work is to remove micropollutants and TOC the ozone dose used al 5 min is in the range of 2 mg/L – 18 mg/L proposed by Pei Xua et al. (2002) for wastewater disinfection CONFERENCIA NACIONAL SOBRE LA REUTILIZACIÓN DEL AGUA 12 de mayo de 2009 The Transferred Ozone Doses (TOD) used to get these removal rates were calculated by integration of ozone absorption rate equation, being the equilibrium concentration of ozone in the water (Rosal et al., in press) Dissolved O 3 ( ) was measured using an amperometric Rosemount 499A OZ. O 3 in gas phase was measured using an Anseros Ozomat GM6000 Pro. Total Organic Carbon (TOC) analyses were performed with a Shimadzu TOC-VCSH analyzer. Samples were preconcentrated prior to the chromatographic analysis by SPE with Oasis HLB cartridges, using an automated sample processor ASPEC XL from Gilson. The analysis was performed by a 3200 QTRAP MS/MS system (Applied Biosystems) using a turbo ionspray source in positive and negative modes. Separation was performed in an Agilent Technologies HPLC series 1100, using a ZORBAX SB column (250mm- 3.0mm I.D.; 5 mm).