Students will be able to explain and demonstrate how plastic parts are made and the chemistry involved in making different parts to meet different customer requirements. These resources fall into academic and the career domains.

Students will be able to explain and demonstrate how plastic parts are made and the chemistry involved in making different parts to meet different customer requirements. These resources fall into academic and the career domains.

Students will be able to explain and demonstrate how plastic parts are made and the chemistry involved in making different parts to meet different customer requirements. These resources fall into academic and the career domains.

Students will be able to explain and demonstrate how plastic parts are made and the chemistry involved in making different parts to meet different customer requirements. These resources fall into academic and the career domains.

Students are challenged to think as biomedical engineers and brainstorm ways to administer medication to a patient who is unable to swallow. They learn about the advantages and disadvantages of current drug delivery methods—oral, injection, topical, inhalation and suppository—and pharmaceutical design considerations, including toxicity, efficacy, size, solubility/bioavailability and drug release duration. They apply their prior knowledge about human anatomy, the circulatory system, polymers, crystals and stoichiometry to real-world biomedical applications. A Microsoft® PowerPoint® presentation and worksheets are provided. This lesson prepares students for the associated activity in which they create and test large-size drug encapsulation prototypes to provide the desired delayed release and duration timing.

Students are introduced to a challenge question. Towards answering the question, they generate ideas for what they need to know about medicines and how they move through our bodies, watch a few short videos to gain multiple perspectives, and then learn lecture material to obtain a basic understanding of how antibiotics kill bacteria in the human body. They learn why different forms of medicine (pill, liquid or shot) get into the blood stream at different speeds.

Students create large-scale models of microfluidic devices using a process similar to that of the PDMS and plasma bonding that is used in the creation of lab-on-a-chip devices. They use disposable foam plates, plastic bendable straws and gelatin dessert mix. After the molds have hardened overnight, they use plastic syringes to inject their model devices with colored fluid to test various flow rates. From what they learn, students are able to answer the challenge question presented in lesson 1 of this unit by writing individual explanation statements.

The goal of this lab is to gain background and technical skills regarding syringes and veterinary injections. Administration of a drug or vaccine is a routine component of herd health management for cattle. While medications can be given orally (by mouth) or topically (on top of the skin), very often a medication requires the use of a syringe. Syringes can be used to inject the medication intramuscularly (into the muscle), subcutaneously (under the skin), intravenously (into a vein), or intradermally (between the layers of the skin). Students will apply these principles in the classroom.