Vibration-assisted Microbead Production: A New Frontier for Biocompatible Surfaces DOI
Bancha Yingngam,

L. Makewilai,

S. Chaisawat

et al.

Royal Society of Chemistry eBooks, Journal Year: 2024, Volume and Issue: unknown, P. 251 - 285

Published: Nov. 15, 2024

The encapsulation of active pharmaceutical ingredients (APIs) in microbeads is an essential step drug delivery; however, it also inherently associated with the need to control particle size and release profiles. Nevertheless, most conventional methods microencapsulation fail provide consistent results. A new method called vibration-assisted microbead coating a novel unified technique utilizing mechanical vibrations enable controlled, uniform on APIs. This chapter discusses technology performed by authors through formation physical activity focuses achieving final coated surface API, shape, size, loading vibration parameters. Additionally, this biocompatibility stability surface. means has high potential for delivery. reduces traditional challenges encapsulation, if not eliminates them, more reliable. Based abovementioned findings, propose following main areas their further work: optimisation parameters various APIs, research into long-term loading–release profile, possible use targeted

Language: Английский

Construction of Mofs/Scp and its Application in the Efficient Recovery Phenols and Oils from Coal Chemical Wastewater: A New Full-Process Adsorption Treatment Mode DOI

Zhuangzhuang Yang,

Yongjun Liu,

Rushuo Yang

et al.

Published: Jan. 1, 2024

To address the challenges of high energy consumption and low efficiency issues in recovery phenols oils from coal chemical wastewater (CCW), a MOFs/SCP adsorbent with large adsorption capacity easy desorption was designed synthesized this study. Based on this, construction new full-process treatment mode, known as "Adsorption-Desorption-Regeneration-Recovery" (ADRR), which is aimed to efficiently recover CCW. The results showed that ADRR mode exhibited persistent stability, adsorption-desorption consistently surpassing 95 %. Meanwhile, regeneration methanol achieved around 90 % 83 respectively. analysis behavior model indicated by predominantly comprised monolayer characterized spontaneity, heat absorption, disorder. dynamic shows strong correlation predicting assessing capacity, rate, equilibrium, operating parameters. Finally, set structural analyses paired molecular dynamics simulations illustrated micro-interaction mechanisms between depend their distinctive hydrophobic nature porous capabilities. This interaction primarily propelled electrostatic interactions, π-π hydrogen bonding. study's findings hold significant practical importance for achieving high-value CCW, promoting clean sustainable growth industry.

Language: Английский

Citations

0

Vibration-assisted Microbead Production: A New Frontier for Biocompatible Surfaces DOI
Bancha Yingngam,

L. Makewilai,

S. Chaisawat

et al.

Royal Society of Chemistry eBooks, Journal Year: 2024, Volume and Issue: unknown, P. 251 - 285

Published: Nov. 15, 2024

The encapsulation of active pharmaceutical ingredients (APIs) in microbeads is an essential step drug delivery; however, it also inherently associated with the need to control particle size and release profiles. Nevertheless, most conventional methods microencapsulation fail provide consistent results. A new method called vibration-assisted microbead coating a novel unified technique utilizing mechanical vibrations enable controlled, uniform on APIs. This chapter discusses technology performed by authors through formation physical activity focuses achieving final coated surface API, shape, size, loading vibration parameters. Additionally, this biocompatibility stability surface. means has high potential for delivery. reduces traditional challenges encapsulation, if not eliminates them, more reliable. Based abovementioned findings, propose following main areas their further work: optimisation parameters various APIs, research into long-term loading–release profile, possible use targeted

Language: Английский

Citations

0