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NANOTERAPIAS	
  ONCOLÓGICAS……	
  

	
  

29.	
   Duncan,	
   R.	
   (2006).	
   Polymer	
   conjugates	
   as	
   anticancer	
   nanomedicines.	
   Nature	
   Reviews	
   Cancer,	
  
    6(9),	
  	
  688-­-701.	
  

30.	
  Vicent,	
  M.J.,	
  &	
  al.	
  (2006).	
  Polymer	
  conjugates:	
  nanosized	
  medicines	
  for	
  treating	
  cancer.	
  Trends	
  
    in	
  Biotechnology,	
  24(1),	
  	
  39-­-47.	
  

31.	
   Graham,	
   M.L.	
   (2003).	
   Pegaspargase:	
   a	
   review	
   of	
   clinical	
   studies.	
   Advanced	
   Drug	
   Delivery	
  
    Reviews,	
  55(10),	
  	
  1293-­-1302.	
  

32.	
   Canal,	
   F.,	
   &	
   al.	
   Polymer–drug	
   conjugates	
   as	
   nano-­-sized	
   medicines.	
   Current	
   Opinion	
   in	
  
    Biotechnology,	
  22,	
  894-­-900.	
  

33.	
   Campone,	
   M.,	
   &	
   al.	
   (2007).P	
   hase	
   I	
   &	
   pharmacokinetic	
   trial	
   of	
   AP5346,	
   a	
   DACH–platinum–
    polymer	
   conjugate,	
   administered	
   weekly	
   for	
   three	
   out	
   of	
   every	
   4	
  weeks	
   to	
   advanced	
   solid	
  
    tumor	
  patients.	
  Cancer	
  Chemotherapy	
  &	
  Pharmacology,	
  	
  60(4),	
  	
  523-­-533.	
  

34.	
   Nowotnik,	
   D.	
   &	
   al.	
   (2009).	
   ProLindac™	
   (AP5346):	
   A	
   review	
   of	
   the	
   development	
   of	
   an	
   HPMA	
  
    DACH	
  platinum	
  Polymer	
  Therapeutic.	
  Advanced	
  Drug	
  Delivery	
  Reviews,	
  61(13),	
  	
  1214-­-1219.	
  

35.	
   Li,	
   C.,	
   &	
   al.	
   (2008).	
   Polymer-­-drug	
   conjugates:	
   Recent	
   development	
   in	
   clinical	
   oncology.	
  
    Advanced	
  Drug	
  Delivery	
  Reviews,	
  60(8),	
  	
  886-­-898.	
  

36.	
  Pasut,	
  G.,	
  &	
  al.	
  (2009).	
  PEG	
  conjugates	
  in	
  clinical	
  development	
  or	
  use	
  as	
  anticancer	
  agents:	
  An	
  
    overview.	
  ,	
  Advanced	
  Drug	
  Delivery	
  Reviews61(13),	
  	
  1177-­-1188.	
  

37.	
  Schluep,	
  T.,	
  &	
  al.	
  (2006).	
  Preclinical	
  Efficacy	
  of	
  the	
  Camptothecin-­-Polymer	
  Conjugate	
  IT-­-101	
  in	
  
    Multiple	
  Cancer	
  Models.	
  Clinical	
  Cancer	
  Research,	
  12(5),	
  	
  1606-­-1614.	
  

38.	
   Blanco,	
   E.,	
   &	
   al.,	
   (2011).	
   Nanomedicine	
   in	
   cancer	
   therapy:	
   Innovative	
   trends	
   &	
   prospects.	
  
    Cancer	
  Science,	
  	
  102(7),	
  	
  1247-­-1252.	
  

39.	
   Oerlemans,	
   C.,	
   &	
   al.,	
   (2010).	
   Polymeric	
   Micelles	
   in	
   Anticancer	
   Therapy:	
   Targeting,	
   Imaging	
   &	
  
    Triggered	
  Release.	
  Pharmaceutical	
  Research,	
  27(12),	
  	
  2569-­-2589.	
  

40.	
   NK105	
   Paclitaxel	
   Micelle.	
   (2011).	
   	
   (cited	
   2011	
   17-­-10-­-2011);	
   Available	
   from:	
  
    http://www.nanocarrier.co.jp/en/research/pipeline/01.html.	
  

41.	
   Kato,	
   K.,	
   &	
   al.	
   Phase	
   II	
   study	
   of	
   NK105,	
   a	
   paclitaxel-­-incorporating	
   micellar	
   nanoparticle,	
   for	
  
    previously	
  treated	
  advanced	
  or	
  recurrent	
  gastric	
  cancer.	
  Investigational	
  New	
  Drugs,	
  	
  1-­-7.	
  

42.	
  Yasuhiro,	
  M.	
  (2011).	
  Preclinical	
  &	
  clinical	
  studies	
  of	
  NK012,	
  an	
  SN-­-38-­-incorporating	
  polymeric	
  
    micelles,	
  which	
  is	
  designed	
  based	
  on	
  EPR	
  effect.	
  Advanced	
  Drug	
  Delivery	
  Reviews,	
  63(3),	
  	
  184-­-
    192.	
  

43.	
  Kataoka,	
  K.,	
  &	
  al.	
  (2006).	
  Polymeric	
  micelle	
  containing	
  cisplatin	
  enclosed	
  therein	
  &	
  use	
  thereof,	
  	
  
    Toudai	
  TLO,	
  Ltd.:	
  USA.	
  

44.	
   Uchino,	
   H.,	
   &	
   al.	
   (2005).	
   Cisplatin-­-incorporating	
   polymeric	
   micelles	
   (NC-­-6004)	
   can	
   reduce	
  
    nephrotoxicity	
  &	
  neurotoxicity	
  of	
  cisplatin	
  in	
  rats.	
  British	
  Journal	
  of	
  Cancer,	
  93(6),	
  	
  678-­-687.	
  

45.	
  Lee,	
  S.-­-W.,	
  &	
  al.	
  Development	
  of	
  docetaxel-­-loaded	
  intravenous	
  formulation,	
  Nanoxel-­-PM™	
  using	
  
    polymer-­-based	
  delivery	
  system.	
  Journal	
  of	
  Controlled	
  Release,	
  155,	
  262-­-271.	
  

46.	
   Paszko,	
   E.,	
   &	
   al.	
   (2011).	
   Nanodrug	
   applications	
   in	
   photodynamic	
   therapy.	
   Photodiagnosis	
   &	
  
    Photodynamic	
  Therapy,	
  8(1),	
  	
  14-­-29.	
  

47.	
   Sharma,	
   R.,	
   &	
   al.	
   (2009).	
   Newer	
   nanoparticles	
   in	
   hyperthermia	
   treatment	
   &	
   thermometry.	
  
    Journal	
  of	
  Nanoparticle	
  Research,	
  11(3),	
  	
  671-­-689.	
  

48.	
  Rozanova,	
  N.,	
  &	
  al.	
  (2008).	
  	
  Metal	
  &	
  Magnetic	
  Nanostructures	
  for	
  Cancer	
  Detection,	
  Imaging,	
  &	
  
    Therapy.	
  Journal	
  of	
  Biomedical	
  Nanotechnology,	
  4(4),	
  	
  377-­-399.	
  

49.	
   Prijic,	
   S.,	
   et	
   al.	
   (2011).	
   Magnetic	
   nanoparticles	
   as	
   targeted	
   delivery	
   systems	
   in	
   oncology.	
  
    Radiology	
  &	
  Oncology,	
  	
  45(1),	
  	
  1-­-16.	
  

50.	
   Jordan,	
   A.,	
   &	
   al.	
   (1999).	
   Endocytosis	
   of	
   dextran	
   &	
   silan-­-coated	
   magnetite	
   nanoparticles	
   &	
   the	
  
    effect	
   of	
   intracellular	
   hyperthermia	
   on	
   human	
   mammary	
   carcinoma	
   cells	
   in	
   vitro.	
   Journal	
   of	
  
    Magnetism	
  &	
  Magnetic	
  Materials,	
  194(1-­-3),	
  	
  185-­-196.	
  

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