Nanoparticles
|
|
|
|
Indomethacin |
Alginate-mesoporous silica |
Sustained drug-delivery system for poorly water-soluble drug |
[53, 54] |
Bacteriophages |
Alginate-nanohydroxyapatite |
Delivery system to prevent orthopedic implant-associated infections |
[55] |
Bacteriophage |
Alginate-CaCO3
|
Encapsulation of bacteriophages |
[56] |
VEGF |
Alginate |
Injectable hydrogels for implant |
[57] |
Prednisolone and inulin |
Alginate-chitosan |
Nanoparticles for colon delivery |
[58] |
Amphotericin B |
Sodium alginate glycol chitosan stearate |
Nanoparticles for better chemotherapy in visceral leishmaniasis |
[59] |
R6G |
Sodium alginate and hydroxyapatite (HAP) |
The HAP@Alg nanoparticles show significant potential for the intracellular controlled release of cell-membrane-impermeable drugs |
[60] |
Dasatinib and zein-lactoferrin |
Sodium alginate |
Nano-in-micro drug-delivery system for anticancer |
[61] |
Curcumin and resveratrol |
Alginate |
Evaluation against DU145 prostate cancer cell line |
[62] |
Amygdalin |
Alginate-chitosan |
Biocompatible drug-delivery carriers for anticancer |
[63] |
5-Fluorouracil |
Alginate |
Treatment for colon cancer liver metastasis |
[64, 65] |
Doxorubicin hydrochloride |
Alginate/CaCO3/DNA |
Mediate gene transfection and deliver drug to the cells for cancer treatments |
[66] |
Tilmicosin |
Sodium alginate and carboxymethyl chitosan (CMCS) |
The novel TIL-nanogel for treatment of Staphylococcus aureus (S. aureus) cow mastitis |
[67] |
|
Microparticles
|
|
|
|
Bismuth sulfide |
Alginate |
Microfluidic alginate microspheres and photothermal effect |
[41] |
Polystyrene |
Sodium alginate |
Microspheres of 400 µm to 900 µm produced pH-responsive smart drug-delivery systems |
[68] |
Gold NPs |
Sodium alginate |
Alginate hydrogels of higher than 10 nm released PEG-AuNPs for diagnostic and therapeutic purposes |
[69] |
D-Mannitol |
Sodium alginate, sodium cellulose sulfate (SCS), and poly(methylene-co-cyanoguanidine) hydrochloride (PMCG) |
Alginate microbeads of 600 to 800 μm stabilized by two coexisting networks for the treatment of diabetes or others |
[70] |
Sorbitan ester-based organogels |
Alginate |
Organogels in alginate microparticles |
[71] |
Corticosteroids |
Alginate |
Microparticles for colon delivery |
[72] |
Vancomycin |
Chitosan-alginate polyelectrolyte |
Vancomycin-chitosan-alginate polyelectrolyte microparticles as the controlled drug-delivery system |
[73] |
|
Other substances
|
|
|
|
Allogeneic pancreatic islet |
Alginate |
Long-term immune protection of allogeneic pancreatic islet cells |
[74] |
Lactoferrin |
Alginate |
Target Clostridioides difficile infection |
[75] |
Probiotic bacteria |
Alginate and silica |
Freeze-dried microparticles |
[76] |
Micronutrient |
Alginate and chitosan |
Functionalization for micronutrient |
[77] |
E. coli Nissle (EcN) |
Sodium alginate and chitosan |
Alginate-chitosan microcapsule enhanced the survival of EcN |
[78] |
Cefdinir |
Alginate |
Floating system and Box–Behnken design |
[79] |
MICP bacterial spores |
Alginate |
Self-healing concrete |
[80] |
SiRNA |
Alginate |
Vaginal delivery using the scaffold system |
[81, 82] |
Bacillus subtilis
|
Alginate-chitosan |
Alginate microcapsule for uranium ion absorption |
[83] |
Hyaluronate |
Alginate |
Regenerating cartilage |
[84] |