CD Bioparticles, a leading provider of nanoparticle-based drug development services, has compiled a relatively complete list of FDA and EMA-approved nano-drugs for use as reference in new drug development. The list includes the most recent approvals and covers a wide range of therapeutic areas, from cancer to infectious diseases. By providing this valuable resource, CD Bioparticles aims to facilitate the development of new and innovative nano-drugs that can meet the needs of patients and healthcare providers worldwide.
List of FDA‑approved nanotechnology‑based products and clinical trials | |||||
Name | Material description | Nanoparticle advantage | Indication(s) | Year approved | Type |
---|---|---|---|---|---|
Adagen®/pegademase bovine (Sigma‑Tau Pharmaceuticals) | PEGylated adenosine deaminase enzyme | Improve circulation time and decreased immuno‑ genicity | Severe combined immunodefi‑ ciency disease (SCID) | 1990 | Polymer nanoparticles |
Cimzia®/certolizumab pegol (UCB) | PEGylated antibody fragment (Certoli‑ zumab) | Improved circulation time and greater stability in vivo | Crohn’s disease; Rheumatoid arthritis; Psoriatic Arthritis; Ankylosing Spondylitis | 2008 | Polymer nanoparticles |
2009 | Polymer nanoparticles | ||||
2013 | Polymer nanoparticles | ||||
2013 | Polymer nanoparticles | ||||
Copaxone®/Glatopa (Teva) | Random copolymer of l‑glutamate, l | Large amino‑acid based polymer with controlled molecular weight and clearance characteristics | Multiple sclerosis (MS) | 1996 | Polymer nanoparticles |
alanine, l‑lysine and l‑tyrosine | Polymer nanoparticles | ||||
Eligard® (Tolmar) | Leuprolide acetate and polymer (PLGH (poly (dl‑lactide‑coglycolide)) | Controlled delivery of payload with longer circula‑ tion time | Prostate cancer | 2002 | Polymer nanoparticles |
Macugen®/Pegaptanib (Bausch & Lomb) | PEGylated anti‑VEGF aptamer (vascular endothelial growth factor) aptamer | Improved stability of aptamer as a result of PEGylation | Macular degeneration, neovascular age‑related | 2004 | Polymer nanoparticles |
Mircera®/Methoxy polyethylene glycol‑ epoetin beta (Hoffman‑La Roche) | Chemically synthesized ESA (erythropoiesis‑ stimulating agent) | Improved stability of aptamer as a result of PEGylation | Anemia associated with chronic kidney disease | 2007 | Polymer nanoparticles |
Neulasta®/pegfilgrastim (Amgen) | PEGylated GCSF protein | Improved stability of protein through PEGylation | Neutropenia, chemotherapy induced | 2002 | Polymer nanoparticles |
Pegasys® (Genentech) | PEGylated IFN alpha‑2a protein | Improved stability of protein through PEGylation | Hepatitis B; Hepatitis C | 2002 | Polymer nanoparticles |
PegIntron® (Merck) | PEGylated IFN alpha‑2a protein | Improved stability of protein through PEGylation | Hepatitis C | 2001 | Polymer nanoparticles |
Renagel®[sevelamer hydrochloride]/Renagel®[sevelamer carbonate] (Sanofi) | Poly(allylamine hydrochloride) | Increase circulation and therapeutic delivery | Chronic kidney disease | 2000 | Polymer nanoparticles |
Somavert®/pegvisomant (Pfizer) | PEGylated HGH receptor antagonist | Improved stability of protein through PEGylation | Acromegaly | 2003 | Polymer nanoparticles |
Oncaspar®/pegaspargase (Enzon pharma‑ ceuticals) | Polymer–protein conjugate (PEGylated l‑asparaginase) | Improved stability of protein through PEGylation | Acute lymphoblastic leukemia | 1994 | Polymer nanoparticles |
Krystexxa®/pegloticase (Horizon) | Polymer–protein conjugate (PEGylated porcine‑like uricase) | Improved stability of protein through PEGylation; introduction of unique mammalian protein | Chronic gout | 2010 | Polymer nanoparticles |
Plegridy® (Biogen) | Polymer–protein conjugate (PEGylated IFN beta‑1a) | Improved stability of protein through PEGylation | Multiple Sclerosis | 2014 | Polymer nanoparticles |
ADYNOVATE (Baxalta) | Polymer–protein conjugate (PEGylated factor VIII) | Improved stability of protein through PEGylation | Hemophilia | 2015 | Polymer nanoparticles |
Zilretta | Triamcinolone acetonide with a poly lactic‑co‑glycolic acid (PLGA) matrix microspheres | Extended pain relief over 12 weeks | Osteoarthritis (OA) of the knee | 2017 | Polymer nanoparticles |
Rebinyn | Coagulation fator IX (Recombinant) Glyco‑ PEGylated | Effective control in 95% of bleeding episodes; 98% of bleeds were treated with 1–2 infusions | Control and prevention of bleeding episodes and prevention of bleed‑ ing in the perioperative setting for haemophilia B patients | 2017 | Polymer nanoparticles |
DaunoXome® (Galen) | Liposomal daunorubicin | Increased delivery to tumour site; lower systemic toxicity arising from side‑effects | Karposi’s sarcoma | 1995 | Liposome |
DepoCyt© (Sigma‑Tau) | Liposomal cytarabine | Increased delivery to tumour site; lower systemic toxicity arising from side‑effects | Lymphomatous meningitis | 1996 | Liposome |
Marqibo® (Onco TCS) | Liposomal vincristine | Increased delivery to tumour site; lower systemic toxicity arising from side‑effects | Acute lymphoblastic leukemia | 2012 | Liposome |
Onivyde® (Merrimack) | Liposomal irinotecan | Increased delivery to tumour site; lower systemic toxicity arising from side‑effects | Pancreatic cancer | 2015 | Liposome |
AmBisome® (Gilead Sciences) | Liposomal amphotericin B | Reduced nephrotoxicity | Fungal/protozoal infections | 1997 | Liposome |
DepoDur® (Pacira Pharmaceuticals) | Liposomal morphine sulphate | Extended release | Analgesia (post‑operative) | 2004 | Liposome |
Visudyne® (Bausch and Lomb) | Liposomal verteporfin | Increased delivery to site of diseased vessels; photosensitive release | Macular degeneration, wet agerelated; myopia; ocular histoplasmosis | 2000 | Liposome |
Doxil®/Caelyx™ (Janssen) | Liposomal doxorubicin | Improved delivery to site of disease; decrease in systemic toxicity of free drug | Karposi’s sarcoma; | 1995 | Liposome |
Ovarian cancer; | 2005 | Liposome | |||
multiple myeloma | 2008 | Liposome | |||
Abelcet® (Sigma-tau) | Liposomal amphotericin B lipid complex | Reduced toxicity | Fungal infections | 1995 | Liposome |
Curosurf®/Poractant alpha (Chiesei farmaceutic | 1999 | Liposome | |||
2017 | Liposome | ||||
Estrasorb™ (Novavax) | Micellar estradiol | Controlled delivery of therapeutic | Menopausal therapy | 2003 | Micellar nanoparticles |
Abraxane®/ABI-007 (Celgene) | Albumin-bound paclitaxel nanoparticles | Improved solubility; improved delivery to tumor | Breast cancer; | 2005 | Protein nanoparticles |
NSCLC; | 2012 | Protein nanoparticles | |||
Pancreatic cancer | 2013 | Protein nanoparticles | |||
Ontak® (Eisai Inc) | Engineered protein combining IL-2 and diphtheria toxin | Targeted T cell specificity; lysosomal escape | Cutaneous T-cell lymphoma | 1999 | Protein nanoparticles |
Emend® (Merck) | Aprepitant | Surface area allows faster absorption and increases bioavailability | Antiemetic | 2003 | Nanocrystals |
Tricor® (Lupin Atlantis) | Fenofibrate | Increases bioavailability simplifies administration | Hyperlipidemia | 2004 | Nanocrystals |
Rapamune® (Wyeth Pharmaceuticals) | Sirolimus | Increased bioavailability | Immunosuppressant | 2000 | Nanocrystals |
Megace ES ® (Par Pharmaceuticals) | Megestrol acetate | Reduced dosing | Anti-anorexic | 2001 | Nanocrystals |
Avinza® (Pfizer) | Morphine sulphate | Increased drug loading and bioavailability; extended release | Psychostimulant | 2002 (2015) | Nanocrystals |
Focalin XR ® (Novartis) | Dexmethylphenidate HCl | Increased drug loading and bioavailability | Psychostimulant | 2005 | Nanocrystals |
Ritalin LA ® (Novartis) | Methylphenidate HCl | Increased drug loading and bioavailability | Psychostimulant | 2002 | Nanocrystals |
Zanaflex® (Acorda) | Tizanidine HCl | Increased drug loading and bioavailability | Muscle relaxant | 2002 | Nanocrystals |
Vitoss® (Stryker) | Calcium phosphate | Mimics bone structure allowing cell adhesion and growth | Bone substitute | 2003 | Nanocrystals |
Ostim® (Heraseus Kulzer) | Hydroxyapatite | Mimics bone structure allowing cell adhesion and growth | Bone substitute | 2004 | Nanocrystals |
OsSatura® (IsoTis Orthobiologics) | Hydroxyapatite | Mimics bone structure allowing cell adhesion and growth | Bone substitute | 2003 | Nanocrystals |
NanOss® (Rti surgical) | Hydroxyapatite | Mimics bone structure allowing cell adhesion and growth | Bone substitute | 2005 | Nanocrystals |
EquivaBone® (Zimmer Biomet) | Hydroxyapatite | Mimics bone structure | Bone substitute | 2009 | Nanocrystals |
Invega® Sustenna ® (Janssen Pharms) | Paliperidone palmitate | Allows slow release of injectable low solubility drug | Schizophrenia; | 2009 | Nanocrystals |
Schizoaffective disorder | 2014 | Nanocrystals | |||
Ryanodex® (Eagle Pharmaceuticals) | Dantrolene sodium | Faster administration at higher doses | Malignant hypothermia | 2014 | Nanocrystals |
Inorganic and metallic nanoparticles Nanotherm ® (MagForce) | Iron oxide | Allows cell uptake and introduces superparamagnetism | Glioblastoma | 2010 | Nanocrystals |
Feraheme™/ferumoxytol (AMAG pharmaceuticals) | Ferumoxytol SPION with polyglucose sorbitol carboxymethylether | Magnetite suspension allows for prolonged steady release, decreasing number of doses | Deficiency anemia iron deficiency in chronic kidney disease (CKD) | 2009 | Nanocrystals |
Venofer® (Luitpold pharmaceuticals) | Iron sucrose | Allows increased dose | Iron deficiency in chronic kidney disease (CKD) | 2000 | Nanocrystals |
Ferrlecit® (Sanofi Avertis) | Sodium ferric gluconate | Allows increased dose | Iron deficiency in chronic kidney disease (CKD) | 1999 | Nanocrystals |
INFeD® (Sanofi Avertis) | Iron dextran (low MW) | Allows increased dose | Iron deficiency in chronic kidney disease (CKD) | 1957 | Nanocrystals |
DexIron®/Dexferrum® (Sanofi Avertis) | Iron dextran (low MW) | Allows increased dose | Iron deficiency in chronic kidney disease (CKD) | 1957 | Nanocrystals |
Feridex®/Endorem® (AMAG pharmaceuticals) | SPION coated with dextran | Superparamagnetic character | Imaging agent | 1996 (2008) | Nanocrystals |
GastroMARK™; umirem® (AMAG pharmaceuticals) | SPION coated with silicone | Superparamagnetic character | Imaging agent | 2001 (2009) | Nanocrystals |
Selected nanomedicines that are in phase III clinical trials | |||||
Name | Status | Active Ingredients | Indication(s) | Outcome | Type |
---|---|---|---|---|---|
ThermoDox(Celsion) | completed | doxorubicin | hepatocellular carcinoma | Positive: ThermoDox increased intratumoral concentration of doxorubicin under external hyperthermia induction by 3.7 times compared with ThermoDox without hyperthermia induction | Lipid-based Nanoparticles |
EndoTAG-1(SynCore Biotechnology) | ongoing | paclitaxel | breast cancer | - | Lipid-based Nanoparticles |
pancreatic adenocarcinoma | - | Lipid-based Nanoparticles | |||
Tecemotide(Merk KGaA) | completed | MUC1 antigen | non-small-cell lung cancer | - | Lipid-based Nanoparticles |
Allovectin-7®(Vical) | completed | VCL-1005 plasmid | melanoma | Nothing has been mentioned | Lipid-based Nanoparticles |
MAGE-A3 + AS15(GSK) | terminated | human melanoma-associated antigen A3 protein | melanoma |
Negative: MAGE-A3
immunotherapeutic for use in melanoma has been stopped, as it was not efficacious | Lipid-based Nanoparticles |
non-small-cell lung cancer | Negative: MAGE-A3 immunotherapeutic for use in NSCLC has been stopped because it did not increase disease-free survival compared with placebo | Lipid-based Nanoparticles | |||
MM-302(Merricmack Pharmaceutical) | terminated | doxorubicinhydrochloride | breast cancer | Negative: MM-302 did not demonstrate benefits over the control | Lipid-based Nanoparticles |
Taxoprexin(Luitpold Pharmaceuticals) | completed | paclitaxel | melanoma | Nothing has been mentioned | Lipid-based Nanoparticles |
non-small-cell lung cancer | Nothing has been mentioned | Lipid-based Nanoparticles | |||
Nanocort(Enceladus in collaboration with Sun Pharma Global) | terminated | prednisolone | rheumatoid arthritis | Nothing has been mentioned | Lipid-based Nanoparticles |
Nanoplatin(NanoCarrier) | completed | cisplatin | advanced solid tumors, lung, biliary, bladder, or pancreatic cancers | Nothing has been mentioned | Polymer-based Nanoparticles |
CRLX101(Cerulean) | completed | Cyclodextrin-Camptothecin | ovarian, renal cell, small cell lung, or rectal cancers | Nothing has been mentioned | Polymer-based Nanoparticles |
NC-6004(NanoCarrier) | completed | cisplatin | pancreatic cancer | Nothing has been mentioned | Polymer-based Nanoparticles |
NKTR-102(Nektar Therapeutics) | completed | irinotecan |
breast cancer brain metastases (BCBM) | Positive: there was a significant improvement in survival of patients with BCBM | Polymer-based Nanoparticles |
NK-105(NanoCarrier) | completed | paclitaxel | breast cancer | Negative: the progression-free survival, which was the primary outcome measure, was not met | Polymer-based Nanoparticles |
CT-2103(CTI BioPharma) | ongoing | paclitaxel |
ovarian, peritoneal, or fallopian tube cancer | - | Polymer-based Nanoparticles |
NBTXR3(Nanobiotix) | ongoing | hafnium-oxide nanoparticle | sarcoma | - | Inorganic nanoparticles |
References:
1. Patra, et al.; Nano based drug delivery systems: recent developments and future prospects. J Nanobiotechnol. 2018,16:71
2. Bobo D, et al.; Nanoparticle based medicines: a review of FDA-approved materials and clinical trials to date. Pharm Res. 2016, 33:2373–87.
3. Halwani AA. Development of Pharmaceutical Nanomedicines: From the Bench to the Market. Pharmaceutics. 2022 Jan 3;14(1):106.
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