3D Printed Implants for Long‐Acting Drug Delivery
3D-печатные имплантаты для длительного высвобождения лекарств
2024-05-13
SCID: 54.1/2e32hdzr
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3D-printed implantable drug delivery systemslong-acting drug releasemanufacturing techniquesmaterial physico-chemical characteristicspersonalised therapies
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Abstract (AI)
3D-printed implantable drug delivery systems (DDSs) are a class of novel therapeutic approaches with promising characteristics for developing personalised therapies. The pharmacokinetic and pharmacodynamic profile of long-acting implantable drug release scaffolds provide significant potential in reducing treatment limitations, like patient compliance, therapeutic threshold, drug bioavailability, and side effects. The manufacturing process of 3D-printed implants involves an initial selection of materials, techniques, and a rational formulation process design. Physico-chemical characteristics of materials, material compatibility, and manufacturing techniques are critical in developing diverse and multifunctional scaffolds defined by a long-acting drug release rate. In this chapter, an overview in manufacturing techniques, DDSs classification, critical design parameters, and prospects of 3D-printed implantable DDSs is given.
Key Findings
1
3D-printed implantable drug delivery systems (DDSs) enable personalized long-acting therapeutic approaches by controlling pharmacokinetic and pharmacodynamic profiles.
2
Long-acting 3D-printed implants can mitigate treatment limitations such as poor patient compliance, subtherapeutic exposure, low drug bioavailability, and side effects.
3
Manufacturing of 3D-printed implants requires careful selection of materials, printing techniques, and rational formulation design to achieve desired release rates.
4
Physicochemical material properties and material compatibility are critical determinants of multifunctional scaffold performance and long-acting drug release.
5
The chapter provides an overview of manufacturing techniques, DDS classification, critical design parameters, and future prospects for 3D-printed implantable DDSs.
Research Object
3D-printed implantable drug delivery systems (long-acting implants)
Research Subject
Design, manufacturing (materials, techniques, formulation) and physico-chemical compatibility governing long-acting drug release profiles and critical design parameters of 3D-printed implantable DDSs
Publication Details
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2024-05-13
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