COURSE CURRICULUM

The Bachelor of Science in Embedded Software Engineering at Lawrence Technological University begins with a strong first-year curriculum designed to provide students with foundational skills in mathematics, science, engineering, and communication. In the fall semester, students take courses such as College Composition, University Chemistry 1 with its laboratory component, Introduction to Electrical and Computer Engineering, Fundamentals of Engineering Design Projects, and Calculus 1. These courses establish essential knowledge in technical writing, critical thinking, problem-solving, and mathematical reasoning, all of which are crucial for success in embedded software engineering. The combination of chemistry, physics, and engineering design projects introduces students to the principles of scientific inquiry, analytical thinking, and practical application of concepts to real-world scenarios.In the spring semester, students build on this foundation by taking Technical and Professional Communication, Engaging Ancient Texts, Calculus 2, Computer Science 1, University Physics 1, and its associated laboratory. This semester emphasizes both technical and theoretical skills, integrating programming concepts with physics and mathematics to prepare students for the challenges of software development in embedded systems. The inclusion of humanities courses encourages critical thinking, broadens perspectives, and enhances communication skills, which are essential for collaborative engineering projects and leadership roles.The first-year curriculum is carefully structured to provide a balance of theory and hands-on experience, ensuring students develop the ability to analyze problems, design solutions, and apply technical knowledge in practical contexts. By the end of the first year, students have gained a solid understanding of fundamental engineering principles, mathematical techniques, and programming skills, setting the stage for more advanced courses in embedded systems, software development, and electrical engineering. This foundational year equips students to succeed in subsequent semesters, where they will tackle more complex design challenges, work with state-of-the-art technologies, and participate in applied projects that mirror real-world industry scenarios.