
Source: Engineering Your Future
To hear other engineers talk about their careers, go to the Engineering Your Future website.
The Ohio Digital Classroom helps students and educators succeed through the educational use of media-on-demand.
In the Engineering Your Future video series, a wide range of engineers give you a behind-the-scenes look at the work they do every day. You learn about the challenges they face, why they find their jobs so exciting, and what they did and the classes they took to prepare for their careers. In this video episode, meet Erik Nieves, a robotics engineer. He describes what robots are, what they do for us, and how engineers design and create them. "Engineers," he says, "are problem solvers." They look at inefficient ways that people accomplish tasks, and then they create and adapt robots to accomplish that work more efficiently, effectively, and safely. He also describes the high school and college classes that helped him prepare to become an engineer.
Chapter 1 - Robotics (Video)
Chapter 2 - What Robots Do (Video)
Chapter 3 - Problem Solvers (Video)
Chapter 4 - School-Career Connection (Video)
Chapter 5 - Future of Robotics (Video)
Lesson Plan and Ohio Standards (Document)
The field of robotics engineering is a sub field of mechanical engineering. Robotics engineers design robots and develop new applications for them for use in a wide range of industries. With new possibilities for robotics due to advances in the computer sciences, robotics engineering is growing rapidly. From production line robots to experimental robotics for the medical, military, and automotive industries, the future of robotics engineering will certainly offer a range of opportunities for professionals entering the field.
Mechanical engineers design, build and test machines, engines and other mechanical devices. Whenever you buy or use almost any product, you can be sure that a mechanical engineer was involved in making it.
Mechanical engineering is one of the broadest engineering fields. That's because a mechanical engineer's work varies by industry and by the type of work. For example:
A mechanical engineer working at a tool company may design and build the automated machines used to assemble products. These automated machines are the tools that other engineers need for their work. Such machines might be used to build products like automobiles, computers, lamps, cell phones and stereos. A machine tool engineer is an example of this type of mechanical engineer.
Or, a mechanical engineer working at an automotive company might be using the tools and machines built by others to manufacture parts or products sold by the company. An automotive design engineer is an example of this type of mechanical engineer.
Because mechanical engineers work with machines, they may specialize in:
Manufacturing, or making products;
Materials, or creating special metals, woods and composites from raw materials that others use in manufacturing;
Robots used in manufacturing;
Plant engineering and maintenance systems;
Power-producing machines such as internal combustion engines, and steam and gas turbines;
Elevators and escalators; and
Heating, refrigeration and air conditioning systems.
Mechanical engineers use computers daily to: Perform complex mathematical computations; Simulate new designs; and Change existing designs. By using CAD/CAM — Computer-Aided Design (CAD) and Computer-Aided Manufacturing (CAM) — mechanical engineers can turn a design into a manufactured product.
College coursework—If you major in mechanical engineering in college, you will study:
Dynamics and statics, Strength of materials, Heat transfer, Fluid dynamics, Solid mechanics, Pneumatics, Hydraulics, Applied thermodynamics, and Control theory.
You also must be able to understand and apply concepts from chemistry and electrical engineering.
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