To handle simple material handling tasks in automated workcells, engineers typically opt for linear axes. However, assembling multiple linear axes into a Cartesian motion system can be a time-consuming process. You must connect each module to the next one, assembling subcomponents as you go, then wire each module, connect each axis to an external controller, and finally program the system.
The one constant thing about technology is that it is constantly changing and evolving. Don’t think so? In that case, ask the people who rushed out to buy the latest iteration of a smartphone, but then find themselves standing in line waiting to purchase the latest new-and-improved version just six months later.
A common theme of science fiction is the interconnectedness of things—be they planets, species or technological processes. Real-world space exploration often verifies this view, especially in the area of technology.
When it comes to the economics of assembly machines, faster is always better. Every minute that it runs, a fast machine produces more goods—and more profits—than an otherwise similar slow machine.
Robots are increasingly being made to mirror humans. The best example of this is the dual-armed robot—such as ABB’s YuMi and Rethink Robotics’ Baxter—designed specifically to work closely with people on the assembly line.
Of all the things that conveyors have moved the past 222 years, none is more iconic than the small chocolate candies that overwhelmed Lucille Ball and Vivian Vance working on the assembly line in September 1952.
Ask a random group of people to explain Rotabroach annular cutting, and you’ll probably get silence. Pose the same question to workers at Lum, MI-based Lumco Manufacturing Co. and you’ll get an earful. The reason: They often make machines that use this technology to cut ferrous and nonferrous metals.