operation depends on parts to be assembled. The Primary target of this manufacturing cell isto glue three parts together to produce a small medical device with limited human intervention.There are three different trajectory actions required to completely assemble the part. Thisresearch paper talks about how to program a low-cost Scara robot for the manufacturing cellwhich performs multiple sequential operations to produce the device.First operation is to glue part “A” and part “B” together to produce a part ‘AB”. The secondoperation is the glue drying time of part “AB”. The third operation is to glue part “C” to part“AB”. The forth operation is to dry part “ABC”. Since there is a minimum robot trajectoryactivity during the glue drying process, a
Paper ID #9275Virtual Joystick Control of Finch RobotProf. David R. Loker, Pennsylvania State University, Erie David R. Loker received the M.S.E.E. degree from Syracuse University in 1986. In 1984, he joined General Electric (GE) Company, AESD, as a design engineer. In 1988, he joined the faculty at Penn State Erie, The Behrend College. In 2007, he became the Chair of the Electrical and Computer Engineering Technology Program. His research interests include wireless sensor networks, data acquisition systems, and communications systems.Mr. Stephen A. Strom, Penn State Behrend Stephen Strom joined the faculty of Penn
Paper ID #9278Electric Circuit Analysis in MATLAB and SimulinkDr. Asad Yousuf, Savannah State UniversityDr. Mohamad A. Mustafa, Savannah State UniversityMr. William Lehman, Bill’s Robotic Solutions William Lehman is President of Bill’s Robotic Solutions which he started in July of 2013. He has had over twenty years of experience in software and hardware development. He has worked on numerous projects in digital communication systems, robotics, and aerospace applications. For the past seven years he has taught technology education mainly at the high school level. Mr. Lehman received his Bachelor of Science degree in
is a risk of damage whenmodifying a multi-layer machine-soldered circuitboard. The final option was to use a RaspberryPito receive communications and pass them on to theArduino. This is the option that was chosen,because it allows for expandability (such as addingcomputer vision for autonomy), and it allows morecommunications options than just packetized serial.The RaspberryPi Model-B provides a 700 MHzARM11 CPU, a Broadcom VideoCore IV GPUwith OpenGL support, and two USB 2.0 ports.6 Figure 6. RaspberryPi BoardAnother important step in choosing hardware was to decide the body style of the robot and themethod to be used for mobility. Since the goal of this project was to create a
concepts.In the fourth and fifth weeks of the class students examine methods for driving LEDs andswitches on the 9s12. One of the important aspects to explore is the temperature dependence ofthe instrumentation system. It is impractical to do cold weather testing within the laboratory sostudents explore the effect that temperature will have on the LED’s light through simulation. Page 24.739.5 (a) (b)Figure 2 Schematic of the diode system (a) and closeup of the resistor (b).The students set up a simple LED schematic in MapleSim, as shown in Fig. 2a. Normallystudents would set the