Page 162 - Materials Chemistry, Second Edition

150 A. Singh and S. I. Olsen

Jorquera (continued)

(1999) (2010) (2011) (2001) al. (2008), (2011) (2011) (2011) (2011) (2011) (2011) (2011)

al. et al. et al. et et al. (2010) al. et al. et al. al. al. et al. et al. et
Reference Zittelli Jorquera Brentner Cheng-Wu et Sierra al. et Brentner Brentner et Yang et Yang Brentner Brentner Brentner

m biomass biomass biomass biomass
0.07 biomass biomass biomass biomass algal biomass biomass biomass biomass biomass biomass
value 9 1.5 algal algal algal algal kWh/t algal algal algal algal algal kWh/t algal algal algal algal

Calculated kg/m 3 /y 0.73 % 29.6 9 2.5 % 90 200 ha/t 0.01 t/t 7.98 GJ/t 405.5 m 3 /t 474.2 3009.2 kg/t 4.4 kg/t 0.3 kg/t 7.2 kg/t 71.6 499.1 km/t t 8.4 kg/t 149.7 kWh/t 49.9 km/t t 23.3

W/m 3

53

LCA m 0.07 outflow

biodiesel considered 9 1.5 culture W/m 3 10 and water biodiesel biodiesel

algal kg/m 3 /y % 29.6 9 2.5 CO 2 % l/min/l Aeration h/day Pumping kg/FPPBR kg/FPPBR g/l g/l kWh/m 3 kg/m 3 kWh/m 3
the Value 0.73 1.50 0.40 10 7.6 0.6 7.4 27.70 1 0.316 0.1
in
used lime with

assumptions phosphate Centrifugation Flocculation

Key productivity content volume days nitrate

2 Productivity Cultivation energy sheet Ammonium Monocalcium Harvesting 1: 2:
Table Parameter Biomass Lipid FPPBR Working Land CO 2 Solar Water Electricity LDPE Steel Option Electricity Transport Option Lime Electricity Transport