72
MŰANYAG- ÉS GUMIIPARI ÉVKÖNYV 2014
[4]
Breitenbach J.: Melt Extrusion Can Bring
New Benefits to HIV Therapy: The Example of
Kaletra Tablets
Am. J. Drug Delivery
4
(2006)
61–64.
[5]
Vajna B., Pataki H., Nagy Zs.K., Farkas
I., Marosi Gy.: Characterization of melt extruded
and conventional Isoptin formulations using
Raman chemical imaging and chemometrics
Int.
J. Pharm
.
419
(2011) 107–113.
[6]
Nagy Zs.K., Sauceau M., Nyúl K.,
Rodier E., Vajna B., Marosi Gy., Fages J.: Use of
supercritical CO2-aided and conventional melt
extrusion for enhancing the dissolution rate of
an active pharmaceutical ingredient
Polym. Adv.
Technol.
23
(2012) 909–918.
[7]
Verreck G., Decorte A., Heymans K.,
Adriaensen J., Liu D., Tomasko D., Arien A.,
Peeters J., Van den Mooter G., Brewster M.E.:
Hot stage extrusion of p-amino salicylic acid with
EC using CO2 as a temporary plasticizer
Int. J.
Pharm
.
327
(2006) 45–50.
[8]
Sauceau M., Fages J., Common A.,
Nikitine C., Rodier E.: New challenges in polymer
foaming: A review of extrusion processes assisted
by supercritical carbon dioxide
Prog. Polym. Sci
.
36
(2011) 749–766.
[9]
Verreck G., DecorteA., Li H., Tomasko D.,
Arien A., Peeters J., Rombaut P., Van den Mooter
G., BrewsterM.E.: The effect of pressurized carbon
dioxide as a plasticizer and foaming agent on the
hot melt extrusion process and extrudate properties
of pharmaceutical polymers
J. Supercritical F
.
38
(2006) 383–391.
[10] Sauceau M., Nikitine C., Rodier E., Fages
J.: Effect of supercritical carbon dioxide on
polystyrene extrusion
J. Supercritical F
.
43
(2007)
367–373.
[11] Vigh T., Horváthová T., Balogh A., Sóti
P.L., Drávavölgyi G., Nagy Zs.K., Marosi Gy.:
Polymer-free and polyvinylpirrolidone-based
electrospun solid dosage forms for drug dissolution
enhancement
Eur. J. Pharm. Sci.
49
(2013) 595–
602.
[12] Noyes A.A., Whitney W.R.: The rate of
solution of solid substances in their own solutions
J. Am. Chem. Soc.
19
(1897) 930–934.
