Progress in materialistic science and modern medical technology has enabled the creation of minimally invasive interventional techniques for implanting appliances, such as scaffolds used in cardiovascular engineering. Biodegradable materials, such as resorbable polymeric materials, are used in equipment that is only required for a temporary duration. For myocardial stents, the medical equipment is necessary for 6–8 months prior to favorable remodeling occurs. Therefore, the use of biodegradable polymeric stents has been proposed to facilitate this beneficial remodeling and address the problem of persistent confinement of the blood artery. In the context of tissue engineering, the scaffold serves the purpose of facilitating favorable cell-scaffold relations in order to promote the development of functioning tissues. The desired result is for the cells to gradually autonomously generate an individual extracellular framework, ultimately substituting the implantable scaffolding or tissue-engineered construct. Fabricated recyclable materials are the preferred options for scaffolding due to their ability to control breakdown patterns across a wide range of periods and their ease of functionalization. This chapter provides a comprehensive analysis of CAD, highlighting the drawbacks of existing treatments and exploring the prospect of biological materials in overcoming these limits in developing bioresorbable stents, cardiovascular grafts, and cardiovascular patches. The chapters will cover various material parameters, types of polymeric utilized, present developments, and future difficulties for every application.