Page 71 - 78_02

DANIEL
ARCOS

8. Mahony,
O.,
&
Jones,
J.
R.
(2008).
Porous
bioactive
nanostructured
scaffolds
for
bone

regeneration:
a
sol-­-gel
solution.
Nanomedicine,
3,
233-­-245.

9. Coradin,
T.,
Boissière,
M.,
&
Livage,
J.
(2006).
Sol-­-gel
Chemistry
in
Medicinal
Science
Curr.

Med.
Chem.,
13,
99-­-108.

10. Vallet-­-Regí,
M.
(2001).
Ceramics
for
medical
applications.

J.
Chem.
Soc.
Dalton
Trans.
97-­-108.

11. Vallet-­-Regí,
M.,
Ragel,
C.
V.,
&
Salinas,
A.
J.
(2003).
Glasses
with
medical
applications.
Eur.
J.

Inorg.
Chem.
1029-­-1042.

12. Vallet-­-Regí,
M.,
Rámila,
A.,
del
Real,
R.
P.,
&
Pérez-­-Pariente,
J.
(2001).
A
new
property
of
MCM-­-

41:
Drug
delivery
system.
Chem.
Mater.,
13,
308-­-311.

13. Kresge,
C.
T.,
Leonowicz,
M.
E.,
Roth,
W.
J.,
Vartuli,
J.
C.,
&
Beck,
J.
S.
(1992).
Ordered

mesoporous
molecular
sieves
synthesized
by
a
liquid-­-crystal
template
mechanism.
Nature,

359,
710-­-712.

14. Vallet-­-Regí,
M.,
Balas,
F.,
&
Arcos,
D.
(2007).
Mesoporous
materials
for
drug
delivery.
Angew

Chem
Int
Ed,
46(40),
7548–7558.

15. Tan,
K.,
Cheang,
P.,
Ho,
I.
A.
W.,
Lam,
P.
Y.
P.,
&
Hui,
K.
M.
(2007).
Nanosized
bioceramic

particles
could
function
as
efficient
gene
delivery
vehicles
with
target
specificity
for
the

spleen.
Gene
Therapy,
14,
828-­-835.

16. Slowing,
I.
I.,
Trewyn,
B.
G.,
&
Lin,
V.
S.-­-Y.
(2006).
Effect
of
surface
functionalization
of
MCM-­-
41-­-type
mesoporous
silica
nanoparticles
on
the
endocytosis
by
human
cancer
cells.
J.
Am.

Chem.
Soc.,
128,
14792-­-14793.

17. Slowing,
I.
I.,
Trewyn,
B.
G.,
&
Lin,
V.
S.-­-Y.
(2007).
Mesoporous
silica
nanoparticles
for

intracellular
delivery
of
membrane-­-impermeable
proteins.
J.
Am.
Chem.
Soc.,
129,
8845-­-8849.

18. Hernandez,
R.,
Tseng,
H.
R.,
Wong,
J.
W.,
Stoddart,
J.
F.,
&
Zink,
J.
I.
(2004).
An
operational

supramolecular
nanovalve.
J.
Am.
Chem.
Soc.,
126,
3370-­-3371.

19. Ferris,
D.
P.,
Zhao,
Y.
L.,
Khashab,
N.
M.,
Khatib,
H.
A.,
Stoddart,
J.
F.,
&
Zink,
J.
I.
(2009).
Light-­-
operated
mechanized
nanoparticles.
J.
Am.
Chem.
Soc.,
131,
1686-­-1688.

20. Lai,
C.
Y.,
Trewyn,
B.
G.,
Jeftinija,
D.
M.,
Jeftinija,
K.,
Xu,
S.,
Jeftinija,
S.,
&
Lin,
V.
S.-­-Y.
(2003).
A

mesoporous
silica
nanosphere-­-based
carrier
system
with
chemically
removable
CdS

nanoparticle
caps
for
stimuli-­-responsive
controlled
release
of
neurotransmitters
and
drug

molecules
J.
Am.
Chem.
Soc.,
125,
4451-­-4459.

21. Ruiz-­-Hernández,
E.,
Baeza,
A.,
&
Vallet-­-Regí,
M.
(2011).
Smart
drug
delivery
through

DNA/magnetic
nanoparticle
gates.
ACSNano,
5,
1259-­-1266.

22. Horcajada,
P.,
Rámila,
A.,
Boulahya,
K.,
González-­-Calbet,
J.,
&
Vallet-­-Regí,
M.
(2004).
Bioactivity

in
ordered
mesoporous
silica
materials.
Solid
State
Sci.,
6,
1295-­-1300.

23. Izquierdo-­-Barba,
I.,
Ruiz-­-González,
L.,
Doadrio,
J.
C.,
González-­-Calbet,
J.
M.,
&
Vallet-­-Regí,
M.

(2005). Tissue
regeneration:
a
new
property
of
mesoporous
materials.

Solid
State
Sci.,
7,

983-­-989.

24. Li,
P.,
Ohtsuki,
C.,
Kokubo,
T.,
Nankanishi,
K.,
Soga,
N.,
Nakamura,
T.,
&
Yamamuro,
T.
(1992).

Apatite
formation
induced
by
silica
gel
in
a
simulated
body
fluid.
J.
Am.
Ceram.
Soc.,
75,
2091-­-
2097.

25. Li,
P.,
Ohtsuki,
C.,
Kokubo,
T.,
Nankanishi,
K.,
Soga,
N.,
Nakamura,
T.,
&
Yamamuro,
T.
(1993).

Effects
of
ions
in
aqueous
media
on
hydroxyapatite
induction
by
silica
gel
and
its
relevance
to

bioactivity
of
bioactive
glass
and
glass-­-ceramics.
J.
Appl.
Biomat.,
4,
221-­-229.

26. Pereira,
M.
M.,
Clark,
A
.E.,
&
Hench.
L.
L.
(1995).
Effect
of
texture
on
the
rate
of

hydroxyapatite
formation
on
silica
gel
surface.

J.
Am.
Ceram.
Soc.,
78,
2463-­-2468.

27. Yan,
X.
X.,
Yu,
C.
Z.
,
Zhou,
X.
F.,
Tang,
J.
W.,
&
Zhao,
D.
Y.
(2004).
Highly
ordered
mesoporous

bioactive
glasses
with
superior
in
vitro
bone
forming
bioactivities.
Angew.
Chem.
Int.
Ed.,
43,

5980-­-5984.

208