TY - JOUR
T1 - PLL-alginate and the HPMC-EC hybrid coating over the 3D DNA nanocubes as compact nanoparticles for oral administration
AU - Baig, Mirza Muhammad Faran Ashraf
AU - Sohail, Muhammad
AU - Mirjat, Ali Asghar
AU - Naveed, Muhammad
AU - Majeed, Fatima
AU - Raza, Faisal
AU - Farooq, Muhammad Asim
AU - Mikrani, Reyaj
AU - Khan, Salman
AU - Abbas, Muhammad
AU - Ullah, Sana
AU - Hasnat, Muhammad
AU - Chunxia, Wen
AU - Khan, Ghulam Jilany
AU - Ansari, Muhammad Tayyab
N1 - Publisher Copyright:
© 2019, King Abdulaziz City for Science and Technology.
PY - 2019/11/1
Y1 - 2019/11/1
N2 - Diabetes Type 2 has been quite difficult to treat/manage with elevated fasting/postprandial glycemic levels. Although this metabolic disorder mostly affected older people, recently a big population of young people developed either pre-diabetes or maturity-onset diabetes-mellitus of young (MODY). A Sulphonylurea class of drugs (SUs) has been used for decades to treat/manage diabetes Type 2. However, sustained release formulations of SUs pose a great risk of hypoglycemia due to the burst insulin release with poor control on fasting glycemic levels with pancreatic beta-cells to undergo exhaustion and decreased beta-cells mass with time and decreased the ability to produce/release insulin on chronic stages. This complication augments alpha cells to secrete glucagon due to feedback stimulation. However, Vildagliptin (VI) as a potent DPP-4 inhibitor has incretin-mediated (GLP1 and GIP), and glucose-dependent mechanism of action to stimulate beta-cells postprandial and wreck the secretion of glucagon from alpha cells. It was reported to improve beta-cells mass with time due to hormonal (incretin elevating) mechanism of action and need to decrease the dose after a few years of administration due to improved ability of the pancreas to release insulin. Herein, we report gastro-retentive HPMC-EC/Alg-PLL hybrid coating over the VI loaded 3D DNA-nanocubes through the electrostatic-interactions/solvent-evaporation techniques to make HPMC-EC/Alg-PLL-DNA-VI hybrid nanoparticles. We attained more stable nanoparticles with better size-uniformity (25–50 nm diameter), having a smooth surface with Entrapment efficiency (E.E%) ≈ 95% and sustained VI release up to 18 ± 4 h than our previous studies (35–2500 nm diameter) (E.E% ≈ 74–92% and prolonged VI release ≈ 15 ± 6 h). We observed superior in vivo GLP-1 and glycemic levels. Hence, hybrid nanoparticles being gastro-retentive released VI slowly to the target site (intestine + blood) in vivo without damaging the islets of Langerhans observed from the histological analysis of the pancreas after treatment duration.
AB - Diabetes Type 2 has been quite difficult to treat/manage with elevated fasting/postprandial glycemic levels. Although this metabolic disorder mostly affected older people, recently a big population of young people developed either pre-diabetes or maturity-onset diabetes-mellitus of young (MODY). A Sulphonylurea class of drugs (SUs) has been used for decades to treat/manage diabetes Type 2. However, sustained release formulations of SUs pose a great risk of hypoglycemia due to the burst insulin release with poor control on fasting glycemic levels with pancreatic beta-cells to undergo exhaustion and decreased beta-cells mass with time and decreased the ability to produce/release insulin on chronic stages. This complication augments alpha cells to secrete glucagon due to feedback stimulation. However, Vildagliptin (VI) as a potent DPP-4 inhibitor has incretin-mediated (GLP1 and GIP), and glucose-dependent mechanism of action to stimulate beta-cells postprandial and wreck the secretion of glucagon from alpha cells. It was reported to improve beta-cells mass with time due to hormonal (incretin elevating) mechanism of action and need to decrease the dose after a few years of administration due to improved ability of the pancreas to release insulin. Herein, we report gastro-retentive HPMC-EC/Alg-PLL hybrid coating over the VI loaded 3D DNA-nanocubes through the electrostatic-interactions/solvent-evaporation techniques to make HPMC-EC/Alg-PLL-DNA-VI hybrid nanoparticles. We attained more stable nanoparticles with better size-uniformity (25–50 nm diameter), having a smooth surface with Entrapment efficiency (E.E%) ≈ 95% and sustained VI release up to 18 ± 4 h than our previous studies (35–2500 nm diameter) (E.E% ≈ 74–92% and prolonged VI release ≈ 15 ± 6 h). We observed superior in vivo GLP-1 and glycemic levels. Hence, hybrid nanoparticles being gastro-retentive released VI slowly to the target site (intestine + blood) in vivo without damaging the islets of Langerhans observed from the histological analysis of the pancreas after treatment duration.
KW - Diabetes type 2
KW - HPMC-EC/Alg-PLL-DNA-Vl hybrid nanoparticles, GLP1
UR - https://www.webofscience.com/wos/woscc/full-record/WOS:000492663300045
UR - https://openalex.org/W2948163889
M3 - Journal Article
SN - 2190-5509
VL - 9
SP - 2105
EP - 2115
JO - Applied Nanoscience (Switzerland)
JF - Applied Nanoscience (Switzerland)
IS - 8
ER -