Special Coverage

Supercomputer Cooling System Uses Refrigerant to Replace Water
Computer Chips Calculate and Store in an Integrated Unit
Electron-to-Photon Communication for Quantum Computing
Mechanoresponsive Healing Polymers
Variable Permeability Magnetometer Systems and Methods for Aerospace Applications
Evaluation Standard for Robotic Research
Small Robot Has Outstanding Vertical Agility
Smart Optical Material Characterization System and Method
Lightweight, Flexible Thermal Protection System for Fire Protection
Nasa Tech Briefs

Smarter Prototyping — How Stratasys F123 3D Printers Make Rapid Prototyping More Accessible and Productive

3D printing’s contributions across the design, engineering and manufacturing disciplines are not new. The technology has been available for over thirty years and is often lauded as the next industrial revolution. Despite some inflated claims, there’s no denying that 3D printing has achieved its place as a valuable design and manufacturing methodology, and a cornerstone of rapid prototyping. It lives up to the promise of making businesses competitive by giving them tools streamline and enhance the product-creation processes. This white paper shows there’s never been a better time to invest in 3D printing, a fact made possible by the new Stratasys F123 3D Printer Series. These 3D printers were designed to remove barriers designers and engineers face by making the RP process more efficient and productive. Learn how the Stratasys F123 Series addresses typical rapid prototyping pain points and lets companies create better products faster, reducing the time to market.

Posted in: White Papers, White Papers, Manufacturing & Prototyping

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Mechanical Metamaterials Can Block Symmetry of Motion

An artist’s rendering of mechanical metamaterials. (Credit: Cockrell School of Engineering) Engineers and scientists at the University of Texas at Austin and the AMOLF institute in the Netherlands have invented mechanical metamaterials that transfer motion in one direction while blocking it in the other. The material can be thought of as a mechanical one-way shield that blocks energy from coming in but easily transmits it going out the other side. The researchers developed the mechanical materials using metamaterials, which are synthetic materials with properties that cannot be found in nature.

Posted in: News, Materials, Motion Control

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Magnetic Motor-Feedback Kits – A New Way to Improve Performance and Reduce Costs

Today’s motor-feedback systems generally fall into one of two categories: high performance and very expensive or low cost, but lacking performance and features.

Posted in: On-Demand Webinars, Motors & Drives, Sensors

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Three-Phase Power Conversion in a Single Step

Marotta Controls is revolutionizing power conversion with 1-STEP, a patent-pending circuit solution that uniquely achieves three-phase active power factor correction, power regulation and electrical isolation in a single conversion step.

Posted in: White Papers, Defense, Electronics & Computers, Motion Control

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ANSYS Startup Program: Simulating the Future

Product innovation without foundational simulation practices is a recipe for disaster. Inside, you’ll read about how the “Startup Ecosystem” of entrepreneurs/startups, incubators, accelerators, and investors is viewing simulation as an “up-front must” in the new product design and innovation process.

Posted in: White Papers, Manufacturing & Prototyping

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Exo-Brake “Parachute” to Enable Safe Return for Small Spacecraft

Engineers pack the Technology Education Satellite with the Exo-Brake payload. Almost 4 square feet in cross section (0.35 square meters), the Exo-Brake is made of Mylar and is controlled by a hybrid system of mechanic struts and flexible cord. (Credit: NASA Ames/Dominic Hart) Engineers at NASA’s Ames Research Center in Moffett Field, CA have been testing its Exo-Brake technology as a simple design that promises to help bring small payloads back through Earth’s atmosphere unharmed. An Exo-Brake is a tension-based, flexible braking device resembling a cross-parachute that deploys from the rear of a satellite to increase the drag. It is a de-orbit device that replaces the more complicated rocket-based systems that would normally be employed during the de-orbit phase of re-entry.

Posted in: News, Aerospace, Motion Control

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Unified Approach Improves the Accuracy of Five-Axis Machine Tools

Ph.D. students Jennifer Creamer and Le Ma work in Missouri University of Science and Technology’s Precision Motion Control Laboratory. (Credit: Missouri S&T) Five-axis machine tools are computer-numerically controlled (CNC) machines that can move, cut, or mill a part on five different axes at the same time. Because of inherent geometric errors, manufacturers must make adjustments when calibrating these machines. Several different approaches exist to help compensate for the errors, but none of them provides a complete picture. Researchers at Missouri University of Science and Technology set out to find a way to eliminate that piecemeal approach and develop a new way to capture complicated geometric errors and automatically generate compensation tables.

Posted in: News, Industrial Controls & Automation, Manufacturing & Prototyping

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