249 - 256 |
Thermal properties of ground and hydrated cowpea Taiwo KA, Akanbi CT, Ajibola OO |
257 - 268 |
Characterising the detachment of thermal and geometric centres in a parallelepipedic frozen food subjected to a fluctuation in storage temperature deElvira C, Sanz PD, Carrasco JA |
269 - 287 |
Mathematical models of non-steady states in a continuous culture system Rovinsky LA |
289 - 300 |
Sun/solar drying of differently treated grapes and storage stability of dried grapes Mahmutoglu T, Emir F, Saygi YB |
301 - 315 |
Sensor fusion for real time quality evaluation of biscuit during baking. Comparison between Bayesian and fuzzy approaches Perrot N, Trystram G, LeGuennec D, Guely F |
317 - 327 |
Fracture stress of fish meat and the glass transition Watanabe H, Tang CQ, Suzuki T, Mihori T |
329 - 338 |
Studying and controlling thermal sterilization of convection-heated canned foods using functions of sensitivity Akterian SG |
339 - 348 |
Mathematical model of the vacuum cooling of liquids Houska M, Podloucky S, Zitny R, Gree R, Sestak J, Dostal M, Burfoot D |
349 - 360 |
Mathematical modelling and simulation of mass transfer in osmotic dehydration processes .1. Conceptual and mathematical models Yao ZM, LeMaguer M |
361 - 373 |
The effect of mixing particles with different characteristics on the residence time distribution of particles in two-phase flow in a tubular system Baptista PN, Oliveira FAR, Sannervik J, Oliveira JC |
375 - 386 |
A model for the dehydration rate of onions Elustondo MP, Pelegrina AH, Urbicain MJ |
387 - 397 |
Kinetic compensation relations: Tools for design in desperation Ozilgen S, Ozilgen M |
399 - 414 |
Analysis of heat, mass and pressure transfer in starch based food systems Wu Y, Irudayaraj J |