ElectroCraft Catalogs and Other Downloads
ElectroCraft offers the following catalogs and other downloads to support both current and legacy products. Some of these items require you to register before you download. When you register you can choose to remember your information on this computer so you won't need to re-enter it.
Current ElectroCraft Whitepapers
ElectroCraft CompletePower™ PRO Series Drives and CompletePower™ Plus Universal Drives take the guesswork out of selecting and configuring a drive and motor combination by incorporating all of the features and functions necessary to provide optimal control of a wide variety of brushless DC motors, permanent magnet DC motors and stepper motors.
In order to more efficiently utilize energy and reduce emissions in the oil & gas extraction process, our customer required an electric motor and drive solution for a glycol circulation pump that was currently being powered by a methane fueled combustion engine.
Torque density and speed requirements of a motion control system are often at odds with space constraints. In new system designs, the trend toward miniaturization continues to reduce size, weight and, ultimately, cost. This trend is also driving the need for highly efficient brushless DC (BLDC) motor solutions that can fulfill performance requirements in a much smaller frame size.
Integrating servo drives into motion systems forces engineers to make decisions that will ultimately affect the entire machine build. Specification choices include picking between analog and digital servo drives; torque-mode or linear servo operation; PCB-mount or fully enclosed standalone construction; and partially to fully distributed drive topologies. In this exclusive Design Guide, the editors of Design World review the functions and variations of servo drives as well as their connectivity and configuration requirements.
Learn how to make the best choice of motor or gearmotor for your application requirements. The factors in selecting the appropriate motor or gearmotor for your application may look simple at the outset but can get complex fairly quickly. By focusing on these six tips in order, engineers will find an easy path to their next motion control solution.
The evolution of DC motor and gear motor technology has opened the doors to lightweight, battery-efficient solutions for mobile platform traction systems. From medical mobility to industrial robotics and warehouse automation, mobile platform traction systems have become more affordable, manageable and efficient in large part due to the advancements of motors and integrated gearbox technology.
Technology advancements in motors, gearboxes, and battery life are expanding the design engineer's options when it comes to applications for mobile power platforms. Medical and industrial robotics, AGVs, all-terrain machines, and high-performance sports chairs are just some of the new markets that mobile power platforms are defining today, thanks to the wide range of integrated motor/gearbox combinations and recent technology advancements that provide powerfully responsive, efficient, and reliable operations. What new application area for mobile power platforms will your design team pioneer next?
“How Technology Advancements are Transforming the Mobility Market” is essential reading when considering a mobile power platform for your next application.
This updated handbook is a helpful guide outlining the design considerations, calculations and application of brushless servo sytems, including helpful engineering formulas and conversion tables.
Recently introduced designs, like those in ElectroCraft's LRPX series, combine specially-designed BLDCs with gearboxes for a streamlined gearmotor design. The integrated design minimizes the number of components for a smaller footprint, greater accuracy, and better dynamic response.
Read on to learn more about the difference between traditional BLDC motor options and integrated BLDC gearmotors.
Manufacturers apply the term "closed-loop stepper" to a wide array of controls. Here, we'll spell out how the three most common closed-loop stepper control schemes work and highlight their advantages and disadvantages.